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This paper proposes training a diffusion model to sample from Boltzmann distributions using only the energy function, with the training objective framed as Wasserstein gradient flows on a KL divergence. The reported gains are concrete but narrow: on alanine dipeptide the authors claim about 3.3 times fewer energy evaluations than the best reported baselines, plus competitive results on interacting-particle benchmarks. Readers should treat the efficiency claim as a benchmark-specific result that needs independent replication before it generalizes to other molecular systems.
WASABI: Wasserstein Sampling via Bridge Interpolants
arXiv:2610.41958v1 Announce Type: cross Abstract: Sampling from Boltzmann distributions is a fundamental problem in physics, chemistry, and biology. We introduce WAsserstein SAmpling via Bridge Interpolants (WASABI), a method that trains a diffusion model to generate samples from a target Boltzmann distribution given access only to the energy function. WASABI minimizes the KL divergence between the distribution generated by its diffusion model and the Boltzmann target using Wasserstein gradient flows. This approach builds on a principle underlying classical sampling methods such as Langevin dynamics. However, applying Wasserstein gradient flows to diffusion models is challenging because the updates require the gradient of the model's own log density, which is generally intractable. We derive a practical training algorithm that avoids computing this gradient. Once trained, WASABI can generate new samples without further evaluations of the energy or its gradient. On alanine dipeptide, WASABI outperforms the best reported baselines using an estimated 3.3 times fewer energy evaluations. It also achieves competitive performance on interacting particle system benchmarks.
Abstract:Sampling from Boltzmann distributions is a fundamental problem in physics, chemistry, and biology. We introduce WAsserstein SAmpling via Bridge Interpolants (WASABI), a method that trains a diffusion model to generate samples from a target Boltzmann distribution given access only to the energy function. WASABI minimizes the KL divergence between the distribution generated by its diffusion model and the Boltzmann target using Wasserstein gradient flows. This approach builds on a principle underlying classical sampling methods such as Langevin dynamics. However, applying Wasserstein gradient flows to diffusion models is challenging because the updates require the gradient of the model's own log density, which is generally intractable. We derive a practical training algorithm that avoids computing this gradient. Once trained, WASABI can generate new samples without further evaluations of the energy or its gradient. On alanine dipeptide, WASABI outperforms the best reported baselines using an estimated 3.3 times fewer energy evaluations. It also achieves competitive performance on interacting particle system benchmarks.
Machine Learning (stat.ML); Machine Learning (cs.LG)
arXiv:2610.41958 [stat.ML]
(or arXiv:2610.41958v1 [stat.ML] for this version)
https://doi.org/10.48550/arXiv.2610.41958 Focus to learn more arXiv-issued DOI via DataCite (pending registration)
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