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%YAML 1.2
---
# This YAML file contains information about all the papers published by the Chodera lab in human- and machine-readable format
#
# Publications can be viewed at multiple sources:
#
# Chodera lab webpage : http://www.choderalab.org/publications/
# Note that subsequent pages may need to use this URL http://www.choderalab.org/publications/?page=2
# where subsequent pages are ?page=3 and so on
#
# Google Scholar : https://scholar.google.com/citations?hl=en&user=nnEg7_8AAAAJ&view_op=list_works&authuser=2&sortby=pubdate
#### Added 2025-01-10
# Title should have only initial letter capitalized
- title: "Fine-tuning molecular mechanics force fields to free energies"
authors: # Use same name in publication
- Dominic Rufa
- Joshua Fass
- John D. Chodera
# Corresponding authors have their email addresses listed
corresponding-authors:
- John D. Chodera
# Add these other fields are optional; fill in as much information as is available
preprint:
url: https://www.biorxiv.org/content/10.1101/2025.01.06.631610v1
date: 2025-01-08
# These links may be listed in the choderalab.org/publications/ page
links:
- action: Code used in this study
short: GitHub
description: Timemachine fork and scripts used in this study
url: https://github.com/choderalab/timemachine_hydration_paper
# Thumbnail image URL
thumbnail: fine-tuning-hydration-free-energies
# Two newlines are needed after the description
funding:
- id: NIH R35 GM152017
rationale: >
This work demonstrates how to fine-tune a molecular mechanics force field using experimental free energy measurements
to consistently improve performance on related free energy tasks. This work introduces a novel one-shot fine-tuning approach
that enbales rapid fine-tuning of the electrostatics model for the espaloma graph convolutional molecular mechanics force field
without the need for additional simulation. While we demonstrate this approach in the context of hydration free energies because
of the ease of ensuring these calculations are converged to high precision, this approach can be applied to well-converged
free energy calculations of other properties such as binding free energies. To our knowledge, this is the first illustration
of the fine-tuning of a foundation molecular mechanics simulation model using experimental free energy measurements to produce a
fine-tuned model with improved accuracy in predicting experimental free energies tasks of interest.
- id: NIH R01 GM132386
rationale: >
This work demonstrates how to fine-tune a molecular mechanics force field using experimental free energy measurements
to consistently improve performance on related free energy tasks. This work introduces a novel one-shot fine-tuning approach
that enbales rapid fine-tuning of the electrostatics model for the espaloma graph convolutional molecular mechanics force field
without the need for additional simulation. While we demonstrate this approach in the context of hydration free energies because
of the ease of ensuring these calculations are converged to high precision, this approach can be applied to well-converged
free energy calculations of other properties such as binding free energies. To our knowledge, this is the first illustration
of the fine-tuning of a foundation molecular mechanics simulation model using experimental free energy measurements to produce a
fine-tuned model with improved accuracy in predicting experimental free energies tasks of interest.
- id: NIH P30 CA008748
rationale: >
This work demonstrates how to fine-tune a molecular mechanics force field using experimental free energy measurements
to consistently improve performance on related free energy tasks. This work introduces a novel one-shot fine-tuning approach
that enbales rapid fine-tuning of the electrostatics model for the espaloma graph convolutional molecular mechanics force field
without the need for additional simulation. While we demonstrate this approach in the context of hydration free energies because
of the ease of ensuring these calculations are converged to high precision, this approach can be applied to well-converged
free energy calculations of other properties such as binding free energies. To our knowledge, this is the first illustration
of the fine-tuning of a foundation molecular mechanics simulation model using experimental free energy measurements to produce a
fine-tuned model with improved accuracy in predicting experimental free energies tasks of interest.
#### Added 2024-12-24
# Title should have only initial letter capitalized
- title: "EspalomaCharge: Machine learning-enabled ultrafast partial charge assignment"
authors: # Use same name in publication
- Yuanqing Wang
- Iván Pulido
- Kenichiro Takaba
- Benjamin Kaminow
- Jenke Scheen
- Lily Wang
- John D. Chodera
# Corresponding authors have their email addresses listed
corresponding-authors:
- Yuanqing Wang
- John D. Chodera
# Add these other fields are optional; fill in as much information as is available
preprint:
url: https://arxiv.org/abs/2302.06758
date: 2023-02-16
published:
doi: https://doi.org/10.1021/acs.jpca.4c01287
journal: Journal of Chemical Physics
volume: 128
page: 4160 # just first page
year: 2024
dates:
submitted: 2024-02-27
accepted: 2024-04-17
published: 2024-05-08
# These links may be listed in the choderalab.org/publications/ page
links:
- action: Code used in this study
short: GitHub
description: The EspalomaCharge fast graph convolutional charge model, useful as a drop-in replacement for AM1-BCC
url: https://github.com/choderalab/espaloma_charge
# Thumbnail image URL
thumbnail: espaloma-charge
# Two newlines are needed after the description
funding:
- id: NIH R01 GM132386
rationale: >
We developed EspalomaCharge, a graph convolutional charge model, as a drop-in replacement for generating AM1-BCC ELF10 charges.
The approach produces scalable, self-consistent charges and is orders of magnitude faster than AM1-BCC while providing lower error
than differences between standard AM1-BCC implementations.
- id: NIH R01 GM140090
rationale: >
We developed EspalomaCharge, a graph convolutional charge model, as a drop-in replacement for generating AM1-BCC ELF10 charges.
The approach produces scalable, self-consistent charges and is orders of magnitude faster than AM1-BCC while providing lower error
than differences between standard AM1-BCC implementations.
# Title should have only initial letter capitalized
- title: "DrugGym: A testbed for the economics of autonomous drug discovery"
authors: # Use same name in publication
- Michael Retchin
- Yuanqing Wang
- Kenichiro Takaba
- John D. Chodera
# Corresponding authors have their email addresses listed
corresponding-authors:
- John D. Chodera
# Add these other fields are optional; fill in as much information as is available
preprint:
url: https://www.biorxiv.org/content/10.1101/2024.05.28.596296v1.abstract
date: 2024-06-02
# These links may be listed in the choderalab.org/publications/ page
links:
- action: Code used in this study
short: GitHub
description: DrugGym codebase and scripts used in this study
url: https://github.com/choderalab/drug-gym/
# Thumbnail image URL
thumbnail: drug-gym
# Two newlines are needed after the description
funding:
- id: NIH R35 GM152017
rationale: >
We present DrugGym, a sandbox for exploring reinforcement learning strategies and evaluating the economics of decisionmaking strategies and predictive models
on small molecule discovery. We use this tool to quantify the value of predictive model accuracy on hit-to-lead programs.
- id: NIH P30 CA008748
rationale: >
We present DrugGym, a sandbox for exploring reinforcement learning strategies and evaluating the economics of decisionmaking strategies and predictive models
on small molecule discovery. We use this tool to quantify the value of predictive model accuracy on hit-to-lead programs.
# Title should have only initial letter capitalized
- title: "Enhancing protein–ligand binding affinity predictions using neural network potentials"
authors: # Use same name in publication
- Francesc Sabanés Zariquiey
- Raimondas Galvelis
- Emilio Gallicchio
- John D. Chodera
- Thomas E. Markland
- Gianni de Fabritiis
# Corresponding authors have their email addresses listed
corresponding-authors:
- Gianni de Fabritiis
# Add these other fields are optional; fill in as much information as is available
preprint:
url: https://arxiv.org/abs/2401.16062
date: 2024-02-14
published:
doi: https://doi.org/10.1021/acs.jcim.3c02031
journal: Journal of Chemical Information and Modeling
volume: 64
page: 1481 # just first page
year: 2024
dates:
submitted: 2023-12-18
accepted: 2024-02-14
published: 2024-02-20
# These links may be listed in the choderalab.org/publications/ page
links:
- action: Code used in this study
short: GitHub
description: The calculated free energy values and ligand and proteinstructures, as well as preparation scripts
url: https://github.com/compsciencelab/ATM_benchmark/tree/main/ATM_With_NNPs
# Thumbnail image URL
thumbnail: de-fabritiis-nnp-free-energy
# Two newlines are needed after the description
funding:
- id: NIH R01 GM140090
rationale: >
We show that hybrid neural network / molecular mechanics potentials can significantly improve accuracy over molecular
mechanics potentials alone in predicting protein-ligand binding affinities.
- id: NIH P30 CA008748
rationale: >
We show that hybrid neural network / molecular mechanics potentials can significantly improve accuracy over molecular
mechanics potentials alone in predicting protein-ligand binding affinities.
# Title should have only initial letter capitalized
- title: "Prospective evaluation of structure-based simulations reveal their ability to predict the impact of kinase mutations on inhibitor binding"
authors: # Use same name in publication
- Sukrit Singh
- Vytautas Gapsys
- Matteo Aldeghi
- David Schaller
- Aziz M Rangwala
- Jessica B White
- Joseph P Bluck
- Jenke Scheen
- William G Glass
- Jiaye Guo
- Sikander Hayat
- Bert L de Groot
- Andrea Volkamer
- Clara D Christ
- Markus A Seeliger
- John D Chodera
# Corresponding authors have their email addresses listed
corresponding-authors:
- Sukrit Singh
- John D Chodera
# Add these other fields are optional; fill in as much information as is available
preprint:
url: https://www.biorxiv.org/content/10.1101/2024.11.15.623861v1
date: 2024-11-17
# These links may be listed in the choderalab.org/publications/ page
links:
- action: Code used in this study
short: GitHub
description: Generated structures and scripts for structure preparation are available on github
url: https://github.com/openkinome/study-abl-resistance
# Thumbnail image URL
thumbnail: prospective-kinase-mutations
# Two newlines are needed after the description
funding:
- id: NIH R35 GM152017
rationale: >
We show that alchemical free energy calculations have the potential to prospectively predict the impact of clinical kinase mutations on targeted kinase inhibitor binding.
Using a new NanoBRET approach to quantifying kinase inhibitor binding affinities on clinical kinase mutations observed in patients at MSKCC, we evaluated multiple
strategies for alchemical free energy calculations---along with fast structure-based ROSETTA and machine learning methods---to assess their utility in predicting the
impact of clinical kinase mutations on inhihbitor affinity for imatinib and dasatinib in a prospective fashion. We find that alchemical free energy calculations show
significant promise in prospectively predicting resistance or sensitive mutations for kinase inhibitor therapy.
- id: NIH P30 CA008748
rationale: >
We show that alchemical free energy calculations have the potential to prospectively predict the impact of clinical kinase mutations on targeted kinase inhibitor binding.
Using a new NanoBRET approach to quantifying kinase inhibitor binding affinities on clinical kinase mutations observed in patients at MSKCC, we evaluated multiple
strategies for alchemical free energy calculations---along with fast structure-based ROSETTA and machine learning methods---to assess their utility in predicting the
impact of clinical kinase mutations on inhihbitor affinity for imatinib and dasatinib in a prospective fashion. We find that alchemical free energy calculations show
significant promise in prospectively predicting resistance or sensitive mutations for kinase inhibitor therapy.
# Title should have only initial letter capitalized
- title: "Benchmarking Cross-Docking Strategies in Kinase Drug Discovery"
authors: # Use same name in publication
- David A. Schaller
- Clara D. Christ
- John D Chodera
- Andrea Volkamer
# Corresponding authors have their email addresses listed
corresponding-authors:
- John D Chodera
- Andrea Volkamer
# Add these other fields are optional; fill in as much information as is available
preprint:
url: https://doi.org/10.1101/2023.09.11.557138
date: 2023-09-14
# These links may be listed in the choderalab.org/publications/ page
links:
- action: Code used in this study
short: GitHub
description: Scripts and modules used for docking benchmark
url: https://github.com/openkinome/kinase-docking-benchmark
published:
doi: https://doi.org/10.1021/acs.jcim.4c00905
journal: Journal of Chemical Information and Modeling
volume: 64
page: 1481 # just first page
year: 2024
dates:
submitted: 2024-05-24
accepted: 2024-11-04
published: 2024-11-19
# Thumbnail image URL
thumbnail: kinase-docking-benchmark
# Two newlines are needed after the description
funding:
- id: NIH R01 GM121505
rationale: >
We show that alchemical free energy calculations have the potential to prospectively predict the impact of clinical kinase mutations on targeted kinase inhibitor binding.
- id: NIH P30 CA008748
rationale: >
We show that alchemical free energy calculations have the potential to prospectively predict the impact of clinical kinase mutations on targeted kinase inhibitor binding.
# Title should have only initial letter capitalized
- title: "Nutmeg and SPICE: Models and data for biomolecular machine learning"
authors: # Use same name in publication
- Peter Eastman
- Benjamin P. Pritchard
- John D. Chodera
- Thomas E. Markland
# Corresponding authors have their email addresses listed
corresponding-authors:
- Peter Eastman
# Add these other fields are optional; fill in as much information as is available
preprint:
url: https://arxiv.org/abs/2406.13112
date: 2023-09-14
# These links may be listed in the choderalab.org/publications/ page
links:
- action: Code used in this study
short: GitHub
description: The SPICE quantum chemical dataset and scripts used to generate the dataset
url: https://github.com/openmm/spice-dataset
published:
doi: https://doi.org/10.1021/acs.jctc.4c00794
journal: Journal of Chemical Theory and Computation
volume: 20
page: 8583 # just first page
year: 2024
dates:
submitted: 2024-06-18
accepted: 2024-09-16
published: 2024-09-25
# Thumbnail image URL
thumbnail: nutmeg-spice
# Two newlines are needed after the description
funding:
- id: NIH R35 GM152017
rationale: >
We present a significant expansion of the SPICE dataset, a large-scale quantum chemical dataset for training machine learning potentials, and show how it can be used to build extremely accurate machine learning potentials.
This dataset will provide a useful foundation for building highly accurate molecular mechanics and machine learning potentials for tasks such as computing protein:ligand binding free energy calculations.
- id: NIH P30 CA008748
rationale: >
We present a significant expansion of the SPICE dataset, a large-scale quantum chemical dataset for training machine learning potentials, and show how it can be used to build extremely accurate machine learning potentials.
This dataset will provide a useful foundation for building highly accurate molecular mechanics and machine learning potentials for tasks such as computing protein:ligand binding free energy calculations.
# Title should have only initial letter capitalized
- title: "Lessons learned during the journey of data: from experiment to model for predicting kinase affinity, selectivity, polypharmacology, and resistance"
authors: # Use same name in publication
- Raquel López-Ríos de Castro
- Jaime Rodríguez-Guerra Pedregal
- David Schaller
- Talia B. Kimber
- Corey Taylor
- Jessica B. White
- Michael Backenköhler
- Alexander Payne
- Ben Kaminow
- Iván Pulido
- Sukrit Singh
- Paula Linh Kramer
- Guillermo Pérez-Hernández
- Andrea Volkamer
- John D. Chodera
# Corresponding authors have their email addresses listed
corresponding-authors:
- Andrea Volkamer
- John D. Chodera
# Add these other fields are optional; fill in as much information as is available
preprint:
url: https://www.biorxiv.org/content/10.1101/2024.09.10.612176v1
date: 2024-09-10
# These links may be listed in the choderalab.org/publications/ page
links:
- action: Code used in this study
short: GitHub
description: KinoML machine learning code package
url: https://github.com/openkinome/kinoml
- action: Machine learning ready kinase data
short: GitHub
description: KinoData machine learning ready dataset of kinase:ligand affinities
url: https://github.com/openkinome/kinodata
# Thumbnail image URL
thumbnail: kinoml
# Two newlines are needed after the description
funding:
- id: NIH R01 GM121505
rationale: >
This best practices paper describes considerations relevant to the use of experimental datasets in structure-based machine learning, using kinase:small molecule interactions as a model system.
- id: NIH P30 CA008748
rationale: >
This best practices paper describes considerations relevant to the use of experimental datasets in structure-based machine learning, using kinase:small molecule interactions as a model system.
# Title should have only initial letter capitalized
- title: "Machine-learned molecular mechanics force fields from large-scale quantum chemical data"
authors: # Use same name in publication
- Kenichiro Takaba
- Anika J Friedman
- Chapin E Cavender
- Pavan Kumar Behara
- Iván Pulido
- Michael M Henry
- Hugo MacDermott-Opeskin
- Christopher R Iacovella
- Arnav M Nagle
- Alexander Matthew Payne
- Michael R Shirts
- David L Mobley
- John D Chodera
- Yuanqing Wang
# Corresponding authors have their email addresses listed
corresponding-authors:
- Kenichiro Takaba
- John D Chodera
- Yuanqing Wang
# Add these other fields are optional; fill in as much information as is available
preprint:
url: https://arxiv.org/abs/2307.07085
date: 2023-12-08
# Add these other fields are optional; fill in as much information as is available
published:
doi: https://doi.org/10.1039/D4SC00690A
journal: Chemical Science
volume: 15
page: 12861 # just first page
year: 2024
dates:
submitted: 2024-01-29
accepted: 2024-06-17
published: 2024-06-26
# These links may be listed in the choderalab.org/publications/ page
links:
- action: Code used in this study
short: GitHub
description: Python code associated with this manuscript
url: https://github.com/choderalab/espaloma-0.3.0-manuscript
# Thumbnail image URL
thumbnail: espaloma-0.3
# Two newlines are needed after the description
funding:
- id: NIH R01 GM132386
rationale: >
We present a new machine-learned molecular mechanics force field, espaloma, that is trained on a large-scale quantum chemical dataset and show that it outperforms traditional force fields in predicting quantum mechanical properties.
- id: NIH R01 GM121505
rationale: >
We present a new machine-learned molecular mechanics force field, espaloma, that is trained on a large-scale quantum chemical dataset and show that it outperforms traditional force fields in predicting quantum mechanical properties.
- id: NIH P30 CA008748
rationale: >
We present a new machine-learned molecular mechanics force field, espaloma, that is trained on a large-scale quantum chemical dataset and show that it outperforms traditional force fields in predicting quantum mechanical properties.
# Title should have only initial letter capitalized
- title: "OpenMM 8: molecular dynamics simulation with machine learning potentials"
authors: # Use same name in publication
- Peter Eastman
- Raimondas Galvelis
- Raúl P Peláez
- Charlles RA Abreu
- Stephen E Farr
- Emilio Gallicchio
- Anton Gorenko
- Michael M Henry
- Frank Hu
- Jing Huang
- Andreas Krämer
- Julien Michel
- Joshua A Mitchell
- Vijay S Pande
- João PGLM Rodrigues
- Jaime Rodriguez-Guerra
- Andrew C Simmonett
- Sukrit Singh
- Jason Swails
- Philip Turner
- Yuanqing Wang
- Ivy Zhang
- John D Chodera
- Gianni De Fabritiis
- Thomas E Markland
# Corresponding authors have their email addresses listed
corresponding-authors:
- Peter Eastman
# Add these other fields are optional; fill in as much information as is available
preprint:
url: https://arxiv.org/abs/2310.03121
date: 2023-11-29
# Add these other fields are optional; fill in as much information as is available
published:
doi: https://doi.org/10.1021/acs.jpcb.3c06662
journal: Journal of Physical Chemistry B
volume: 128
page: 109 # just first page
year: 2023
dates:
submitted: 2023-10-06
accepted: 2023-12-06
published: 2023-12-28
# These links may be listed in the choderalab.org/publications/ page
links:
- action: OpenMM 8 code
short: GitHub
description: OpenMM 8 code
url: http://openmm.org
# Thumbnail image URL
thumbnail: openmm-logo
# Two newlines are needed after the description
funding:
- id: NIH R01 GM140090
rationale: >
We present OpenMM 8, which includes GPU-accelerated support for simulating hybrid ML/MM systems that use machine learning (ML) potentials to achieve high accuracy with minimal loss in speed.
- id: NIH P30 CA008748
rationale: >
We present OpenMM 8, which includes GPU-accelerated support for simulating hybrid ML/MM systems that use machine learning (ML) potentials to achieve high accuracy with minimal loss in speed.
##############################################
# Title should have only initial letter capitalized
- title: MEN1 mutations mediate clinical resistance to Menin inhibition
authors: # Use same name in publication
- Florian Perner
- Eytan Stein
- Sukrit Singh
- Daniela Wenge
- Athina Apazidis
- Homa Rahnamoun
- Disha Anand
- Jeonghyeon Kim
- Christian Marinaccio
- Charles Hatton
- Yanhe Wen
- David Schaller
- Shoron Mowla
- Wenbin Xiao
- Holly Gamlen
- Aaron Stonestrom
- Sonali Persaud
- Elizabeth Ener
- Jevon Cutler
- John Doench
- Gerard McGeehan
- Andrea Volkamer
- Radosław Nowak
- Eric Fischer
- John D. Chodera
- Ross Levine
- Sheng Cai
- Richard Stone
# Corresponding authors have their email addresses listed
corresponding-authors:
- Scott Armstrong
# Add these other fields are optional; fill in as much information as is available
published:
doi:
journal: Nature
volume: in press
page: # just first page
year:
dates:
submitted: 2022-03-07
accepted: 2022-11-30
# Add these other fields are optional; fill in as much information as is available
# Thumbnail image URL
thumbnail: menin-mutations
# These links may be listed in the choderalab.org/publications/ page
links:
- action: Download simulation scripts
short: GitHub
description: Scripts for structure preparation, docking, and simulation of MEN1 mutants interacting with inhibitors
url: https://github.com/choderalab/men1
- action: Download the datasets
short: OSF
description: Data from free energy calculations, Folding@home trajectories, and Markov state models of MEN1 mutants
url: https://osf.io/uge5j/
# Two newlines are needed after the description
funding:
- id: NIH P30 CA008748
rationale: >
This work reports the use of computational methods developed for predicting the impact of clinical mutations
in kinases on therapeutic response to another target of cancer therapy, the chromatin adapter protein Menin.
To understand observed clinical resistance mutations that arose in a phase I clinical trial in response to
therapy with the Menin inhibitor revumineb, we probe the biophysical origin of the emergence of resistance to therapy.
- id: NIH R01 GM121505
rationale: >
This work reports the use of computational methods developed for predicting the impact of clinical mutations
in kinases on therapeutic response to another target of cancer therapy, the chromatin adapter protein Menin.
To understand observed clinical resistance mutations that arose in a phase I clinical trial in response to
therapy with the Menin inhibitor revumineb, we probe the biophysical origin of the emergence of resistance to therapy.
# Title should have only initial letter capitalized
- title: "Death by a thousand cuts---combining kinase inhibitors for selective target inhibition and rational polypharmacology"
authors: # Use same name in publication
- Ian R. Outhwaite
- Sukrit Singh
- Benedict-Tilman Berger
- Stefan Knapp
- John D. Chodera
- Markus A. Seeliger
# Corresponding authors have their email addresses listed
corresponding-authors:
- Markus A. Seeliger
# Add these other fields are optional; fill in as much information as is available
#preprint:
# url: https://www.biorxiv.org/content/10.1101/2021.08.24.457513v1.abstract
# date: 2021-08-26
# These links may be listed in the choderalab.org/publications/ page
links:
- action: Code, datasets, and results used in this study
short: GitHub
description: Multi-inhibitor, multi-target (MMS) methodology code and data for designing kinase inhibitor mixtures to achieve high selectivity
url: https://github.com/iouthwaite/inhibitor_combinations
# Thumbnail image URL
thumbnail: inhibitor-combinations
# Two newlines are needed after the description
funding:
- id: NIH R01 GM121505
rationale: >
This work reports a new paradigm and approach for achieving selective kinase inhibition through use of combinations of
kinase inhibitors with imperfect selectivities in a manner that minimizes off-target inhibition while maximizing on-target
potency. The proposed method is validated with experimental data using NanoBRET measurements of kinase inhibition in cells.
# Title should have only initial letter capitalized
- title: "Development and benchmarking of Open Force Field 2.0.0---the Sage small molecule force field"
authors: # Use same name in publication
- Simon Boothroyd
- Pavan Kumar Behara
- Owen C. Madin
- David F. Hahn
- Hyesu Jang
- Vytautas Gapsys
- Jeffrey R. Wagner
- Joshua T. Horton
- David L. Dotson
- Matthew W. Thompson
- Jessica Maat
- Trevor Gokey
- Lee-Ping Wang
- Daniel J. Cole
- Michael K. Gilson
- John D. Chodera
- Christopher I. Bayly
- Michael R. Shirts
- David L. Mobley
# Corresponding authors have their email addresses listed
corresponding-authors:
- Michael K. Gilson
- John D. Chodera
- Michael R. Shirts
- David L. Mobley
# Add these other fields are optional; fill in as much information as is available
preprint:
url: https://chemrxiv.org/engage/chemrxiv/article-details/637938cbe70b0a110aa33b8b
date: 2022-11-21
# These links may be listed in the choderalab.org/publications/ page
links:
- action: Download the code to reproduce training
short: GitHub
description: Code and data for training the OpenFF 2.0.0 ("Sage") small molecule force field
url: https://github.com/openforcefield/openff-sage
- action: OpenFF 2.0.0 ("Sage") force field parameters in SMIRNOFF format
short: GitHub
description: The OpenFF 2.0.0 ("Sage") small molecule force field
url: https://github.com/openforcefield/openff-forcefields/releases/tag/2.0.0
# Thumbnail image URL
thumbnail: openff-2.0.0
# Two newlines are needed after the description
funding:
- id: NIH R01 GM132386
rationale: >
This work describes an improved molecular mechanics force field for organic matter that is fit to
both quantum chemical and experimental solution phase data. It represents a considerable step toward
a general force field capable of simulating heterogeneous biomolecular systems.
- id: NSF CHE-1738975
rationale: >
This work describes the automated fitting of a molecular mechanics force field fit to
both quantum chemical and experimental solution phase data. It represents a considerable step toward
a general force field capable of simulating heterogeneous biomolecular systems.
# Title should have only initial letter capitalized
- title: "Open Force Field BespokeFit: Automating bespoke torsion parametrization at scale"
authors: # Use same name in publication
- Joshua T Horton
- Simon Boothroyd
- Jeffrey Wagner
- Joshua A Mitchell
- Trevor Gokey
- David L Dotson
- Pavan Kumar Behara
- Venkata Krishnan Ramaswamy
- Mark Mackey
- John D Chodera
- Jamshed Anwar
- David L Mobley
- Daniel J Cole
# Corresponding authors have their email addresses listed
corresponding-authors:
- Daniel J Cole
# Add these other fields are optional; fill in as much information as is available
preprint:
url: https://chemrxiv.org/engage/chemrxiv/article-details/631a10083940c20533f81566
date: 2022-09-09
# These links may be listed in the choderalab.org/publications/ page
links:
- action: Code to reproduce training and results
short: GitHub
description: OpenFF BespokeFit source code and installation instructions
url: https://github.com/openforcefield/openff-bespokefit
- action: Read the BespokeFit documentation
short: Docs
description: OpenFF BespokeFit documentation
url: https://docs.openforcefield.org/projects/bespokefit
- action: Download the data from the paper
short: Data
description: Raw data and analysis notebooks for the BespokeFit paper
url: https://zenodo.org/record/7062336
# Thumbnail image URL
thumbnail: bespokefit
# Two newlines are needed after the description
funding:
- id: NIH R01 GM132386
rationale: >
This work describes a methodology and generally useful tool for generating high-quality tailored parameters for specific
small molecules via quantum chemical or machine learning potentials trained with quantum chemical data.
# Title should have only initial letter capitalized
- title: "NNP/MM: Fast molecular dynamics simulations with machine learning potentials and molecular mechanics"
authors: # Use same name in publication
- Raimondas Galvelis
- Alejandro Varela-Rial
- Stefan Doerr
- Roberto Fino
- Peter Eastman
- Thomas E. Markland
- John D. Chodera
- Gianni De Fabritiis
# Corresponding authors have their email addresses listed
corresponding-authors:
- Gianni De Fabritiis
# Add these other fields are optional; fill in as much information as is available
preprint:
url: https://arxiv.org/abs/2201.08110
date: 2022-01-20
# These links may be listed in the choderalab.org/publications/ page
links:
- action: Download the OpenMM pytorch plugin
short: GitHub
description: Source code for the OpenMM pytorch plugin
url: https://github.com/openmm/openmm-torch
- action: Download the NNPOps GPU-accelerated ML potential library
short: GitHub
description: Source code for the NNPOps GPU-accelerated ML potential library
url: https://github.com/openmm/nnpops
# Thumbnail image URL
thumbnail: openmm
# Two newlines are needed after the description
funding:
- id: NIH R01 GM140090
rationale: >
A major objective of this grant is to develop highly optimized, easy-to-use functionality for deploying machine learning
(ML) potential energy functions within the OpenMM ecosystem. This paper demonstrates how we have achieved this with a
fast, conda-installable plugin architecture that allows users to simulate hybrid ML/MM biomolecular systems with
unprecedented performance.
description: >
We present the GPU-accelerated NNPOps library for accelerating hybrid machine learning / molecular mechanics (ML/MM)
molecular simulations within OpenMM, and demonstrate how protein:ligand ML/MM simulations with the ANI ML potential
used to treat the ligand with high accuracy can reach within 5x of GPU-accelerated pure MM simulation speeds.
# Title should have only initial letter capitalized
- title: "SPICE, a dataset of drug-like molecules and peptides for training machine learning potentials"
authors: # Use same name in publication
- Peter Eastman
- Pavan Kumar Behara
- David L. Dotson
- Raimondas Galvelis
- John E. Herr
- Josh T. Horton
- Yuezhi Mao
- John D. Chodera
- Benjamin P. Pritchard
- Yuanqing Wang
- Gianni De Fabritiis
- Thomas E. Markland
# Corresponding authors have their email addresses listed
corresponding-authors:
- Peter Eastman
# Add these other fields are optional; fill in as much information as is available
preprint:
url: https://arxiv.org/abs/2209.10702
date: 2022-11-23
published:
doi: https://doi.org/10.1038/s41597-022-01882-6
journal: Scientific Data
volume: 10
page: 11 # just first page
year: 2023
dates:
received: 2022-10-05
accepted: 2022-12-01
published: 2023-01-04
# These links may be listed in the choderalab.org/publications/ page
links:
- action: Download the dataset
short: GitHub release
description: SPICE quantum chemical dataset
url: https://github.com/openmm/spice-dataset/releases/tag/1.1.2
- action: Download the dataset generation code
short: GitHub
description: Source code for curating and generating the SPICE quantum chemical dataset
url: https://github.com/openmm/spice-dataset
- action: Download machine learning potential models
short: Models
description: Equivariant Transformer machine learning potential energy models built from the SPICE quantum chemical dataset
url: https://github.com/openmm/spice-models
# Thumbnail image URL
thumbnail: spice-dataset
# Two newlines are needed after the description
funding:
- id: NIH R01 GM132386
rationale: >
To remedy the lack of large, open quantum chemical datasets for training accurate general machine learning
potentials and molecular mechanics force fields for druglike small molecules and biomolecules, we produced
the open SPICE dataset, and show how it can be used to build extremely accurate machine learning potentials.
- id: NIH R01 GM140090
rationale: >
To remedy the lack of large, open quantum chemical datasets for training accurate general machine learning
potentials for druglike small molecules and biomolecules, we produced the open SPICE dataset, and show how it
can be used to build extremely accurate machine learning potentials.
# Title should have only initial letter capitalized
- title: "Improving force field accuracy by training against condensed phase mixture properties"
authors: # Use same name in publication
- Simon Boothroyd
- Owen C. Madin
- David L. Mobley
- Lee-Ping Wang
- John D. Chodera
- Michael R. Shirts
# Corresponding authors have their email addresses listed
corresponding-authors:
- Michael R. Shirts
# Add these other fields are optional; fill in as much information as is available
preprint:
url: https://chemrxiv.org/engage/chemrxiv/article-details/62587928ebac3a4647d513f7
date: 2022-04-15
published:
doi: https://doi.org/10.1021/acs.jctc.1c01268
journal: Journal of Chemical Theory and Computation
volume: 18
page: 3577 # just first page
year: 2022
dates:
received: 2021-12-16
published: 2022-05-09
# These links may be listed in the choderalab.org/publications/ page
links:
- action: Download the scripts to reproduce the study
short: GitHub
description: Scripts to assess and improve molecular mechanics force fields with condensed phase mixture simulations
url: https://github.com/SimonBoothroyd/binary-mixture-publication
# Thumbnail image URL
thumbnail: openff-evaluator
# Two newlines are needed after the description
funding:
- id: NIH R01 GM132386
rationale: >
We use a new automated framework for physical property evaluation and fitting to show how molecular mechanics
force fields can be systematically improved by fitting to condensed phase properties.
# Title should have only initial letter capitalized
- title: "The Open Force Field Evaluator: An automated, efficient, and scalable framework for the estimation of physical properties from molecular simulation"
authors: # Use same name in publication
- Simon Boothroyd
- Lee-Ping Wang
- David L Mobley
- John D Chodera
- Michael R Shirts
# Corresponding authors have their email addresses listed
corresponding-authors:
- Michael R. Shirts
# Add these other fields are optional; fill in as much information as is available
preprint:
url: https://chemrxiv.org/engage/chemrxiv/article-details/610ad0ed45805d722f80e4de
date: 2021-08-05
published:
doi: https://doi.org/10.1021/acs.jctc.1c01111
journal: Journal of Chemical Theory and Computation
volume: 18
page: 3566 # just first page
year: 2022
dates:
received: 2021-11-04
published: 2022-05-04
# These links may be listed in the choderalab.org/publications/ page
links:
- action: Download the OpenFF Evaluator
short: GitHub
description: Source code for the OpenFF Evaluator
url: https://github.com/openforcefield/openff-evaluator
- action: Read the documentation
short: Docs
description: Documentation for the OpenFF Evaluator
url: https://docs.openforcefield.org/projects/evaluator/en/stable/
# Thumbnail image URL
thumbnail: openff-evaluator
# Two newlines are needed after the description
funding:
- id: NIH R01 GM132386
rationale: >
We describe a new software framework for automated evaluation of physical properties for the benchmarking
and optimization of small molecule force fields according to best practices.
- id: NIH P30 CA008748
rationale: >
This work reports the development of a new software framework for automated evaluation of physical properties
for the benchmarking and optimization of small molecule force fields according to best practices. These tools
can be used to systematically improvable predictions of protein:ligand interactions and binding affinities, enabling us
to systematically increase the accuracy of our predictions of kinase:inhibitor affinities to accelerate the
design of targeted cancer therapies.
# Title should have only initial letter capitalized
- title: "SAMPL7 protein-ligand challenge: A community-wide evaluation of computational methods against fragment screening and pose-prediction"
authors: # Use same name in publication
- Harold Grosjean
- Mehtap Işık
- Anthony Aimon
- David Mobley
- John Chodera
- Frank von Delft
- Philip C Biggin
# Corresponding authors have their email addresses listed
corresponding-authors:
- Philip C Biggin
# Add these other fields are optional; fill in as much information as is available
published:
doi: https://doi.org/10.1007/s10822-022-00452-7
journal: Journal of Computer Aided Molecular Design
volume: 36
page: 291 # just first page
year: 2022
dates:
received: 2021-11-02
accepted: 2022-03-22
published: 2022-04-15
# These links may be listed in the choderalab.org/publications/ page
links:
- action: Download data
short: GitHub
description: All the experimental data, participant submissions, analysis, and codes for the SAMPL7 PHIPA protein-ligand challenge
url: https://github.com/samplchallenges/SAMPL7/tree/master/protein_ligand
# Thumbnail image URL
thumbnail: sampl7-phip2
# Two newlines are needed after the description
funding:
- id: NIH R01 GM124270
rationale: >
This work reports the results of a blind predictive modeling challenge assessing how well current generation computational
chemistry approaches can predict the bound poses of small molecules against PHIPA, a target with no known chemical matter
previously reported.
# Title should have only initial letter capitalized
- title: "CACHE (Critical Assessment of Computational Hit-finding Experiments): A public-private partnership benchmarking initiative to enable the development of computational methods for hit-finding"
authors: # Use same name in publication
- Harold Grosjean
- Mehtap Işık
- Anthony Aimon
- David Mobley
- John Chodera
- Frank von Delft
- Philip C Biggin
# Corresponding authors have their email addresses listed
corresponding-authors:
- Philip C Biggin
# Add these other fields are optional; fill in as much information as is available
preprint:
url: https://chemrxiv.org/engage/chemrxiv/article-details/6168ba62f718dfc39bdee0db
date: 2021-10-22
published:
doi: https://doi.org/10.1038/s41570-022-00363-z
journal: Nature Reviews Chemistry
volume: 6
page: 287 # just first page
year: 2022
dates:
accepted: 2022-01-21
published: 2022-02-15
# These links may be listed in the choderalab.org/publications/ page
links:
- action: Visit the CACHE Challenges website
short: Website
description: The CACHE Challenges website
url: https://cache-challenge.org/
# Thumbnail image URL
thumbnail: sampl7-phip2
# Two newlines are needed after the description
funding:
- id: NIH R01 GM124270
rationale: >
We describe CACHE: A new public-private partnership that aims to transform computer-aided drug discovery
much the way that CASP transformed protein structure prediction into a reproducible, accurate engineering discipline.
These blind predictive challenges will assess the accuracy of current generation machine learning and computational
chemistry tools in identifying new hits for protein targets.