SAMPL6 logP challenge: machine learning and quantum mechanical approaches

Two different types of approaches: (a) approaches that combine quantitative structure activity relationships, quantum mechanical electronic structure methods, and machine-learning and, (b) electronic structure vertical solvation approaches, were used to predict the log P coefficients of 11 molecules...

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Veröffentlicht in:Journal of computer-aided molecular design 2020-05, Vol.34 (5), p.495-510
Hauptverfasser: Patel, Prajay, Kuntz, David M., Jones, Michael R., Brooks, Bernard R., Wilson, Angela K.
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container_issue 5
container_start_page 495
container_title Journal of computer-aided molecular design
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creator Patel, Prajay
Kuntz, David M.
Jones, Michael R.
Brooks, Bernard R.
Wilson, Angela K.
description Two different types of approaches: (a) approaches that combine quantitative structure activity relationships, quantum mechanical electronic structure methods, and machine-learning and, (b) electronic structure vertical solvation approaches, were used to predict the log P coefficients of 11 molecules as part of the SAMPL6 log P blind prediction challenge. Using electronic structures optimized with density functional theory (DFT), several molecular descriptors were calculated for each molecule, including van der Waals areas and volumes, HOMO/LUMO energies, dipole moments, polarizabilities, and electrophilic and nucleophilic superdelocalizabilities. A multilinear regression model and a partial least squares model were used to train a set of 97 molecules. As well, descriptors were generated using the molecular operating environment and used to create additional machine learning models. Electronic structure vertical solvation approaches considered include DFT and the domain-based local pair natural orbital methods combined with the solvated variant of the correlation consistent composite approach.
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subjects Animal Anatomy
Chemistry
Chemistry and Materials Science
Computer Applications in Chemistry
Computer Simulation
Density functional theory
Dipole moments
Electronic structure
Histology
Ligands
Machine Learning
Models, Chemical
Molecular orbitals
Morphology
Physical Chemistry
Quantum mechanics
Quantum Theory
Regression models
Solvation
Water - chemistry
title SAMPL6 logP challenge: machine learning and quantum mechanical approaches
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