GAP vs. MACE: efficiency evaluation in a liquid electrolyte system

Abstract Machine learning interatomic potentials (MLIPs) have revolutionized molecular simulations, but as they evolve, so does the demand for advanced computing architectures, particularly graphics processing units (GPUs). However, the high cost of GPUs limits accessibility, making it crucial to compare GPU and central processing unit (CPU) based MLIPs under practical conditions. This study examines two popular MLIPs: the GPU-accelerated multi-atomic cluster expansion model and the CPU-based Gaussian approximation potentials model, applied to a battery electrolyte system known for its complex properties. By focusing on these models, our study evaluates differences in computational performance, resource efficiency, and accuracy in reproducing experimental properties. This rigorous benchmark provides insights into the trade-offs between GPU and CPU-based approaches in molecular simulations.

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Publication Details

Journal
Machine Learning Science and Technology
Published
2026-01-08
DOI
https://doi.org/10.1088/2632-2153/ae35cf
Primary Topic
Machine Learning in Materials Science
Type
article
Field-Weighted Citation Impact
0.00
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article

GAP vs. MACE: efficiency evaluation in a liquid electrolyte system

Florian Deißenbeck, Anton Beiersdorfer, Lisa Hetzel, Christopher Johannes Stein et al.
Machine Learning Science and Technology
Machine Learning in Materials Science
article

GAP vs. MACE: efficiency evaluation in a liquid electrolyte system

Florian Deißenbeck, Anton Beiersdorfer, Lisa Hetzel, Christopher Johannes Stein, Carsten Staacke
article en

Abstract

Abstract Machine learning interatomic potentials (MLIPs) have revolutionized molecular simulations, but as they evolve, so does the demand for advanced computing architectures, particularly graphics processing units (GPUs). However, the high cost of GPUs limits accessibility, making it crucial to compare GPU and central processing unit (CPU) based MLIPs under practical conditions. This study examines two popular MLIPs: the GPU-accelerated multi-atomic cluster expansion model and the CPU-based Gaussian approximation potentials model, applied to a battery electrolyte system known for its complex properties. By focusing on these models, our study evaluates differences in computational performance, resource efficiency, and accuracy in reproducing experimental properties. This rigorous benchmark provides insights into the trade-offs between GPU and CPU-based approaches in molecular simulations.

Machine Learning Science and TechnologyVol. 7(1)
Fritz Haber Institute of the Max Planck Society (DE), Max Planck Computing and Data Facility (DE), Centerforce (US), Technical University of Munich (DE)
Decent work and economic growth
Openalex Percentile: Top 93%
Machine Learning in Materials Science
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