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Topological Neural Operators (TNOs) introduce a framework that lifts neural operators from point-based functions to topological domains using Discrete Exterior Calculus, enabling explicit cross-dimensional coupling via gradient, curl, and divergence operators. By decoupling fixed topological information flow from learned transformations, the model respects the geometric support of physical quantities and exposes conservation structures while improving accuracy on irregular-geometry PDE benchmarks. This approach unifies existing neural operator methods and offers a principled path for handling higher-rank data and long-range topology-dependent information in scientific machine learning.
Sources coveringarXiv, Quantum Zeitgeist, SiliconANGLE

Topological Neural Operators

arXiv2 min read

arXiv:2606.09806v1 Announce Type: new Abstract: We introduce Topological Neural Operators (TNOs), a principled framework for operator learning on cell complexes that lifts neural operators (NOs) from functions on points and/or edges to topological domains. TNOs represent data as features defined on cells of varying dimension and model their interactions through Discrete Exterior Calculus, enabling explicit cross-dimensional coupling via gradient-, curl-, and divergence-type operators. The key design principle is to decouple where information flows, as governed by fixed topological operators, from how it is transformed (which is learned), yielding models that respect the geometric support of physical quantities and expose conservation and compatibility structure. We further propose Hierarchical TNOs (HTNOs), which incorporate learned coarse complexes to propagate long-range and topology-dependent information. Our framework subsumes existing NOs as a special case, providing a unified perspective on operator learning across discretizations. Across a range of PDE benchmarks, including irregular-geometry flow problems, TNOs and HTNOs improve accuracy; controlled studies further isolate the benefits of native higher-rank and topological structure. Project page: https://circle-group.github.io/research/TNO

Abstract:We introduce Topological Neural Operators (TNOs), a principled framework for operator learning on cell complexes that lifts neural operators (NOs) from functions on points and/or edges to topological domains. TNOs represent data as features defined on cells of varying dimension and model their interactions through Discrete Exterior Calculus, enabling explicit cross-dimensional coupling via gradient-, curl-, and divergence-type operators. The key design principle is to decouple where information flows, as governed by fixed topological operators, from how it is transformed (which is learned), yielding models that respect the geometric support of physical quantities and expose conservation and compatibility structure. We further propose Hierarchical TNOs (HTNOs), which incorporate learned coarse complexes to propagate long-range and topology-dependent information. Our framework subsumes existing NOs as a special case, providing a unified perspective on operator learning across discretizations. Across a range of PDE benchmarks, including irregular-geometry flow problems, TNOs and HTNOs improve accuracy; controlled studies further isolate the benefits of native higher-rank and topological structure. Project page: this https URL

Machine Learning (cs.LG); Artificial Intelligence (cs.AI)

arXiv:2606.09806 [cs.LG]

(or arXiv:2606.09806v1 [cs.LG] for this version)

https://doi.org/10.48550/arXiv.2606.09806 Focus to learn more arXiv-issued DOI via DataCite (pending registration)

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Full text under the publisher's open licence · 262 words

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