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MENO introduces a novel neural operator architecture designed to solve partial differential equations (PDEs) with significantly reduced memory footprints and faster training speeds compared to existing methods. Its ability to handle arbitrary geometric domains and cross-geometry scenarios offers a promising path toward scaling neural operators for large-scale scientific computing tasks without being constrained by data resolution. This advancement addresses critical bottlenecks in the efficiency and generalization of AI-driven physics simulations, making it relevant for researchers working on computational science and machine learning applications in engineering.
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MENO: Memory-Efficient Neural Operator

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arXiv:2609.27739v1 Announce Type: new Abstract: We propose the Memory-Efficient Neural Operator (MENO) as a high-performance PDE neural solver based on the Manifold Function Encoder (MFE). MENO features three primary advantages: (1) MENO has a significantly smaller memory footprint and much faster training speed than other popular architectures, with the memory footprint being independent of the data resolution, and therefore holds the potential for scaling up to large-scale models. (2) MENO can accept PDE inputs of arbitrary form, including arbitrary geometric domains and arbitrary discretizations. In particular, it is capable of handling cross-geometry scenarios, i.e., where the input functions and the output solutions are defined on different manifolds. (3) MENO exhibits strong generalization capability, and achieves the best accuracy on most of the benchmarks we tested, compared with the results reported in the literature. The code is available on GitHub at https://github.com/jpzxshi/MENO, and all numerical examples in this paper can be run with a single command to reproduce the reported results.

Abstract:We propose the Memory-Efficient Neural Operator (MENO) as a high-performance PDE neural solver based on the Manifold Function Encoder (MFE). MENO features three primary advantages: (1) MENO has a significantly smaller memory footprint and much faster training speed than other popular architectures, with the memory footprint being independent of the data resolution, and therefore holds the potential for scaling up to large-scale models. (2) MENO can accept PDE inputs of arbitrary form, including arbitrary geometric domains and arbitrary discretizations. In particular, it is capable of handling cross-geometry scenarios, i.e., where the input functions and the output solutions are defined on different manifolds. (3) MENO exhibits strong generalization capability, and achieves the best accuracy on most of the benchmarks we tested, compared with the results reported in the literature. The code is available on GitHub at this https URL, and all numerical examples in this paper can be run with a single command to reproduce the reported results.

Machine Learning (cs.LG)

arXiv:2609.27739 [cs.LG]

(or arXiv:2609.27739v1 [cs.LG] for this version)

https://doi.org/10.48550/arXiv.2609.27739 Focus to learn more arXiv-issued DOI via DataCite (pending registration)

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