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This research introduces off-policy log-dispersion regularization (LDR) to enhance the data efficiency of Boltzmann generators, addressing critical bottlenecks in training generative models for physical systems. By leveraging target energy labels without requiring additional on-policy samples, LDR significantly improves sample efficiency across various benchmarks while acting as a shape regularizer for complex energy landscapes. This advancement directly impacts Machine Learning applications where simulation costs are prohibitive and high-fidelity sampling is essential.
Efficient Training of Boltzmann Generators Using Off-Policy Log-Dispersion Regularization
arXiv:2602.03729v3 Announce Type: replace Abstract: Sampling from unnormalized probability densities is a central challenge in computational science. Boltzmann generators are generative models that enable independent sampling from the Boltzmann distribution of physical systems at a given temperature. However, their practical success depends on data-efficient training, as both simulation data and target energy evaluations are costly. To this end, we propose off-policy log-dispersion regularization (LDR), a novel regularization framework that builds on a generalization of the log-variance objective. We apply LDR in the off-policy setting in combination with standard data-based training objectives, without requiring additional on-policy samples. LDR acts as a shape regularizer of the energy landscape by leveraging additional information in the form of target energy labels. The proposed regularization framework is broadly applicable, supporting unbiased or biased simulation datasets as well as purely variational training without access to target samples. Across all benchmarks, LDR improves both final performance and data efficiency, with sample efficiency gains of up to one order of magnitude.
Abstract:Sampling from unnormalized probability densities is a central challenge in computational science. Boltzmann generators are generative models that enable independent sampling from the Boltzmann distribution of physical systems at a given temperature. However, their practical success depends on data-efficient training, as both simulation data and target energy evaluations are costly. To this end, we propose off-policy log-dispersion regularization (LDR), a novel regularization framework that builds on a generalization of the log-variance objective. We apply LDR in the off-policy setting in combination with standard data-based training objectives, without requiring additional on-policy samples. LDR acts as a shape regularizer of the energy landscape by leveraging additional information in the form of target energy labels. The proposed regularization framework is broadly applicable, supporting unbiased or biased simulation datasets as well as purely variational training without access to target samples. Across all benchmarks, LDR improves both final performance and data efficiency, with sample efficiency gains of up to one order of magnitude.
Machine Learning (cs.LG)
arXiv:2602.03729 [cs.LG]
(or arXiv:2602.03729v3 [cs.LG] for this version)
https://doi.org/10.48550/arXiv.2602.03729 Focus to learn more arXiv-issued DOI via DataCite
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