Poster Number | Name | Last Name | Poster Title |
---|---|---|---|
1 | Alyssa | Travitz | Open Free Energy: An Ecosystem for Open Source Alchemy |
2 | Ana | Caldaruse | Efficient binding affinity predictions for fragment-based compounds using a separated topologies approach |
3 | Jasmin | Güven | Protocols for free energy predictions for beta-lactamases: insights from cross-class inhibitors |
4 | Audrius | Kalpokas | Comparison of Scaffold Hopping Transformation Approaches for Relative Binding Free Energy Predictions |
5 | James | Baggs Eastwood | Open Force Field and Open Free Energy: Two projects, one heart |
6 | Sukrit | Singh | Prospective evaluation of structure-based simulations reveal their ability to predict the impact of kinase mutations on inhibitor binding |
7 | Lindsey | Whitmore | Force switching and potential shifting lead to errors in free energies of alchemical transformations |
8 | Simon | Webb | Fast, accurate prediction of protein-ligand binding free energies by mining minima: the VM2 software package |
9 | Sudarshan | Behera | Enhancing Convergence of Non-equilibrium Alchemy with Multistate Approach |
10 | Sheenam | Khuttan | From Cofolding to FEP: Unveiling the Path to Absolute Antibody Affinities |
11 | Monica | Barron | Evaluating Mutational Effects on Protein-Protein Interactions with Lambda-Dynamics |
13 | Wei | Chen | Development of an all-atom explicit-solvent constant pH molecular dynamics method and its application to pH-dependent binding |
14 | Edward | Mendez-Otalvaro | Tuning the affinity of potential activators for a K2P channel |
15 | Haoming | Su | Bayesian framework integrating machine learning and alchemical methods for free energy calculations |
16 | Anastasia | Saar | Boiling Point Calculation of Organic Liquids through Molecular Simulation |
17 | Murphy | Angelo | Predicting modified RNA binding to RNA-binding proteins with λ-dynamics |
18 | Alzbeta | Kubincova | How well does docking predict alternative binding modes? |
19 | Joe | Greener | Learning complete force fields with continuous atom typing |
20 | João | Morado | Enhancing Electrostatic Embedding for ML/MM Free Energy Calculations. |
21 | Kun | Yue | A hybrid coarse-grained force fields for proteins |
22 | Agnes | Huang | Benchmarking a cost-efficient RBFE protocol for membrane-associated proteins |
23 | Maria | Castellanos | Assessing broad-spectrum antiviral activity within the coronavirus family using a structure-based computational pipeline |
24 | Justina | Ratkeviciute | Improving Alchemical Binding Free Energy Calculations Using Fully Adaptive Simulated Tempering (FAST) |
25 | Jay | Ponder | Binding Free Energy of RNA G-Quadruplex with Monovalent and Divalent Ions |
26 | Roy | Nassar | Calculating Reorganization Energies of Sidechains in Binding Sites |
27 | Han | Tang | Space-Time DDPM: Learning to Denoise Across Space and Time for dynamic prediction |
28 | Elisa | Donati | QuantumBind-RBFE: Accurate Binding Affinity Prediction for Streamlined Drug Discovery |
29 | Abhishek | Kognole | Grid-Based Free Energy Landscapes for Structure-Based Drug Design Using SILCS |
30 | Lily | Wang | Updates to force field design & development at Open Force Field |
Poster Number | Name | Last Name | Poster Title |
---|---|---|---|
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 |