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Boltzmann priors for Implicit Transfer Operators

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arxiv 2410.10605 v2 pith:RGQRFIYU submitted 2024-10-14 physics.chem-ph

classification physics.chem-ph
keywords bopitosimulationsunbiasedapproachboltzmanndataequilibriumimplicit
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Accurate prediction of thermodynamic properties is essential in drug discovery and materials science. Molecular dynamics (MD) simulations provide a principled approach to this task, yet they typically rely on prohibitively long sequential simulations. Implicit Transfer Operator (ITO) Learning offers a promising approach to address this limitation by enabling stable simulation with time steps orders of magnitude larger than MD. However, to train ITOs, we need extensive, unbiased MD data, limiting the scope of this framework. Here, we introduce Boltzmann Priors for ITO (BoPITO) to enhance ITO learning in two ways. First, BoPITO enables more efficient data generation, and second, it embeds inductive biases for long-term dynamical behavior, simultaneously improving sample efficiency by one order of magnitude and guaranteeing asymptotically unbiased equilibrium statistics. Furthermore, we showcase the use of BoPITO in a new tunable sampling protocol interpolating between ITOs trained on off-equilibrium simulations and an equilibrium model by incorporating unbiased correlation functions. Code is available at https://github.com/olsson-group/bopito .

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Cited by 2 Pith papers

Reviewed papers in the Pith corpus that reference this work. Sorted by Pith novelty score.

  1. Enhanced Diffusion Sampling: Efficient Rare Event Sampling and Free Energy Calculation with Diffusion Models

    stat.ML 2026-02 conditional novelty 6.0 of 10

    Steering a pretrained diffusion model with bias potentials and then reweighting with MBAR computes rare-state free energies with far fewer samples than unbiased diffusion sampling.

  2. Marginal Girsanov Reweighting: Stable Variance Reduction for Long-Timescale Dynamics from Biased Simulation

    q-bio.QM 2025-09 unverdicted novelty 6.0 of 10

    Marginal Girsanov Reweighting stabilizes variance by marginalizing over intermediate paths to enable reliable reweighting of long-timescale dynamics from biased molecular simulations.

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