Solving Newton's Equations of Motion with Large Timesteps using Recurrent Neural Networks based Operators
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Abstract (arXiv)
Classical molecular dynamics simulations are based on solving Newton's equations of motion. Using a small timestep, numerical integrators such as Verlet generate trajectories of particles as solutions to Newton's equations. We introduce operators derived using recurrent neural networks that accurately solve Newton's equations utilizing sequences of past trajectory data, and produce energy-conserving dynamics of particles using timesteps up to 4000 times larger compared to the Verlet timestep. We demonstrate significant speedup in many example problems including 3D systems of up to 16 particles.
Key facts. Cited by 6 papers in the map (data through 7 Oct 2026). First posted on arXiv 12 Apr 2020.
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Citing papers per year: 2021: 1; 2022: 2; 2023: 1; 2024: 0; 2025: 2.
6 papers.
- 2022Exact conservation laws for neural network integrators of dynamical systemscited by 15
- 2025Force-Free Molecular Dynamics Through Autoregressive Equivariant Networkscited by 13
- 2025FlashMD: long-stride, universal prediction of molecular dynamicscited by 11
- 2021Locally-symplectic neural networks for learning volume-preserving dynamicscited by 9
- 2022Neural DAEs: Constrained neural networkscited by 1
- 2023Machine learning for advancing low-temperature plasma modeling and simulationcited by 0
- 2025FlashMD: long-stride, universal prediction of molecular dynamics25 May 2025
- 2025Force-Free Molecular Dynamics Through Autoregressive Equivariant Networks31 Mar 2025
- 2023Machine learning for advancing low-temperature plasma modeling and simulation30 Jun 2023
- 2022Neural DAEs: Constrained neural networks25 Nov 2022
- 2022Exact conservation laws for neural network integrators of dynamical systems23 Sep 2022
- 2021Locally-symplectic neural networks for learning volume-preserving dynamics19 Sep 2021