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Python for chemoinformatics

= Table of Contents :imagesdir: images

Update 03_2019: forked and tried to translate to english. Corrections are welcome.

Update 01_2020: updating the information to mimic original.

  • https://asciidoctor.org/docs/asciidoc-syntax-quick-reference/#formatted-text[AsciiDoc Syntax Quick Reference]

== link:ch01_introduction.asciidoc[01 Introduction]

  • What is RDKit?
  • Target audience
  • About the code in this book
  • Acknowledgments
  • bonus
  • License

== link:ch02_installation.asciidoc[02 Create an environment for chemoinformatics]

  • About Anaconda
  • How to install Anaconda
  • Build virtual environment and install packages
  • Description of the installed package
  • More about Conda

== link:ch03_python.asciidoc[03 Basics of Python programming]

  • Python basics
  • Use it conveniently with the Jupyter notebook
  • Machine learning with Python

== link:ch04_database.asciidoc[04 Public database for chemoinformatics]

  • ChEMBL
  • PubChem
  • Search for desired information with ChEMBL
  • Other useful databases

== link:ch05_rdkit.asciidoc[05 Handling Structural Information with RDKit]

  • What is SMILES?
  • Let's draw the structure
  • How to handle multiple compounds at once?
  • Try hetero shuffling

== link:ch06_similarity.asciidoc[06 Evaluating the similarity of compounds]

  • What does it mean that compounds are similar?
  • Calculate similarity
  • Virtual screening
  • Clustering
  • Structure Based Drug Design (SBDD)

== link:ch07_graph.asciidoc[07 Evaluation of similarity using graph structure]

  • Classification by major skeleton (MCS)
  • Matched Molecular Pair and Matched Molecular Series
  • Visualize MMP networks using Cytoscape

== link:ch08_visualization.asciidoc[08 I want to have many compounds at once]

  • Chemical Spaceとは
  • Mapping using tSNE

== link:ch09_qsar.asciidoc[09 Basics of Quantitative Structure-Activity Relationship (QSAR)]

  • Consider the cause of the effect (Classification problem)
  • Predict the efficacy of drugs (regression problem)
  • Model applicability (applicability domain)

== link:ch10_deeplearning.asciidoc[10 Introduction to Deep-Learning]

  • About TensorFlow and Keras
  • Google colab
  • Let's install

== link:ch11_dlqsar.asciidoc[11 Structure-activity relationship using deep-learning]

  • Predictive model construction using DNN
  • Devising a descriptor (neural fingerprint)

== link:ch12_generativemodels.asciidoc[12 Let the computer think about chemical structure]

  • Preparation
  • Illustration

== link:ch13_beyond.asciidoc[13 Conclusion]

  • Final remarks and further reading

== License

This document is copyright (C) 2019 by @fmkz___ and @iwatobipen

This document is link:https://github.com/Mishima-syk/py4chemoinformatics/blob/master/LICENSE[Creative Commons Attribution-NonCommercial-ShareAlike 4.0 International Public License].

image::by-nc-sa.png[CC-BY-NC-SA, width=100]