| 1 |
Zachary |
Smith |
Towards automated physics-based absolute drug residence time predictions |
| 3 |
Irfan |
Alibay |
Large-scale collaborative assessment of binding free energy calculations for drug discovery using OpenFE |
| 4 |
Devany |
West |
Model evaluation and comparison for the prediction of ADMET properties |
| 5 |
Dina |
Sharon |
Ringing in the Rain: Analysis of a Water Polygon Framework for Aqueous Structure |
| 6 |
Amirmasoud |
Samadi |
Advancing λ Dynamics to Address Challenges in Antibody Binding Affinity Prediction |
| 8 |
Iván |
Pulido |
Free Energy Predictions for Single-Point Mutations in the Open Free Energy Ecosystem |
| 9 |
Christopher |
Bayly |
Getting that ligand starting pose correct: Rescuing Good Poses from Docking for Virtual Screening. |
| 10 |
Mark |
Polk |
High-throughput fluorescence-based assay for kinase inhibitor binding enables experimental evaluation of computational models |
| 11 |
Matthew |
Speranza |
Orthogonal Space Sampling for Multi-site λ Dynamics |
| 12 |
Anna Katharina |
Picha |
Condensed phase properties and transferable neural network potentials |
| 13 |
Joshua |
Horton |
Evaluating bespoke torsion parameters derived from machine learning interatomic potentials for the prediction of protein-ligand binding free energies |
| 14 |
Daniella |
Hares |
Enhancing Small Molecule Binding through Computational Analysis of Water Networks |
| 15 |
Matthew |
Burman |
SOMD2: a modular and extensible open-source engine for GPU-accelerated free energy calculation |
| 16 |
Ariana |
Clerkin |
Building an Open Protein-Ligand Structure and Affinity Benchmark Set: A Resource to Assess Force Field and Binding Free Energy Methods |
| 17 |
Carter |
Wilson |
Improving pKa predictions with reparameterized force fields and free energy calculations |
| 18 |
Meghan |
Osato |
An automated workflow for diagnosing sampling issues caused by slow rotations in binding free energy calculations |
| 19 |
Willem |
Jespers |
Q-FEP: high throughput free energy calculations using Q |
| 20 |
Chris |
Neale |
Balancing Accuracy and Throughput in Lead Optimization |
| 21 |
Mary |
Pitman |
Expanding the Boundaries of Free Energy Predictions with AI-Enhanced Nonequilibrium Chimeric Switching |
| 22 |
Abrun |
Nereim |
Force Matching of Parameters for the Description of Reactive Processes via the Multisurface Adiabatic Reactive Molecular Dynamics |
| 23 |
Hsu-Chun |
Tsai |
Binding affinity prediction of peptide binders using PepFEP and PepACES |
| 24 |
Sara |
Tkaczyk |
Alchemical Free Energy Calculations with Neural Network Potentials |
| 25 |
Varbina |
Ivanova |
Assessing the Robustness of Hydrogen Bonds in the 14-3-3σ–SSBP4-FC-A Ternary Complex Using Steered MD Simulations and the Jarzynski Equation |
| 26 |
Guilherme |
Menegon Arantes |
Design of Next-Generation Agrochemicals Targeting Respiratory Complexes |
| 27 |
Amogh |
Sood |
It Takes Two to Tango: A software-suite of Custom Dual Topology Methods for Binding Free Energy Predictions |
| 28 |
Lev |
Tsidilkovski |
Fast Hybrid All Atom MD - Neural Network Potentials with increased Accuracy |
| 29 |
Alexander |
Payne |
How many crystal structures does it take to trust your docking results? |
| 30 |
David |
Dotson |
Leveraging “planetary scale” compute on Folding@Home for alchemical binding free energy calculations with alchemiscale and OpenFE |
| 7 |
Alyssa |
Travitz |
Open Free Energy: An Ecosystem for Open Source Alchemy |