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Paper · arXiv

Learning Permutation-invariant Macroscopic Dynamics

Accurately modeling the macroscopic dynamics of high-dimensional microscopic systems is of broad interest across the sciences. Many data-driven approaches learn a low-dimensional latent state through an autoencoder trained for pointwise input reconstruction. These methods typically assume a fixed ordering of microscopic degrees of freedom in the input. However, in many settings, such as particle systems, the microscopic state is inherently unordered. This motivates an autoencoder framework that learns permutation-invariant latent representations. To this end, we adopt a permutation-invariant encoder and design the decoder to reconstruct the mass distribution centered at the observed point...

AuthorsZhichao Han, Mengyi Chen, Qianxiao Li
Primary categorycs.LG
Published29 May 2026
Last updated at source29 May 2026
cs.LGphysics.comp-ph
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