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Daniel S. Levine 0003

Possible papers associated with this exact author name in Arrow. This page groups case-insensitive exact name matches and is not a full identity disambiguation profile.

2 papers
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2

ICML Conference 2025 Conference Paper

Adjoint Sampling: Highly Scalable Diffusion Samplers via Adjoint Matching

  • Aaron J. Havens
  • Benjamin Kurt Miller
  • Bing Yan
  • Carles Domingo-Enrich
  • Anuroop Sriram
  • Daniel S. Levine 0003
  • Brandon M. Wood
  • Bin Hu

We introduce Adjoint Sampling, a highly scalable and efficient algorithm for learning diffusion processes that sample from unnormalized densities, or energy functions. It is the first on-policy approach that allows significantly more gradient updates than the number of energy evaluations and model samples, allowing us to scale to much larger problem settings than previously explored by similar methods. Our framework is theoretically grounded in stochastic optimal control and shares the same theoretical guarantees as Adjoint Matching, being able to train without the need for corrective measures that push samples towards the target distribution. We show how to incorporate key symmetries, as well as periodic boundary conditions, for modeling molecules in both cartesian and torsional coordinates. We demonstrate the effectiveness of our approach through extensive experiments on classical energy functions, and further scale up to neural network-based energy models where we perform amortized conformer generation across many molecular systems. To encourage further research in developing highly scalable sampling methods, we plan to open source these challenging benchmarks, where successful methods can directly impact progress in computational chemistry. Code & and benchmarks provided at https: //github. com/facebookresearch/adjoint_sampling.

ICML Conference 2025 Conference Paper

Learning Smooth and Expressive Interatomic Potentials for Physical Property Prediction

  • Xiang Fu 0005
  • Brandon M. Wood
  • Luis Barroso-Luque
  • Daniel S. Levine 0003
  • Meng Gao
  • Misko Dzamba
  • C. Lawrence Zitnick

Machine learning interatomic potentials (MLIPs) have become increasingly effective at approximating quantum mechanical calculations at a fraction of the computational cost. However, lower errors on held out test sets do not always translate to improved results on downstream physical property prediction tasks. In this paper, we propose testing MLIPs on their practical ability to conserve energy during molecular dynamic simulations. If passed, improved correlations are found between test errors and their performance on physical property prediction tasks. We identify choices which may lead to models failing this test, and use these observations to improve upon highly-expressive models. The resulting model, eSEN, provides state-of-the-art results on a range of physical property prediction tasks, including materials stability prediction, thermal conductivity prediction, and phonon calculations.

v2026.09.13