arXiv:2504.03503stat.MLcs.LG2025-04被引 18

用统计视角解析算子学习,提升物理模型预测精度

Operator Learning: A Statistical Perspective

  • 将算子学习视为函数到函数的回归问题
  • 结合物理约束提升微分方程求解器的泛化能力
  • 适合从事科学计算与模型泛化研究的读者

算子学习已成为科学计算中近似无限维函数空间映射的强大工具。其主要应用是构建偏微分方程(PDE)解算子的代理模型,也可用于从实验数据中建立无数学模型的黑箱模拟器。本文首先将算子学习形式化为函数到函数的回归问题,并综述近期进展。进一步讨论了针对PDE的算子学习策略,包括在架构设计与训练中融入物理与数学约束。最后指出未来方向,如主动数据采集与严格的不确定性量化框架。

原文摘要 · Abstract (English)

Operator learning has emerged as a powerful tool in scientific computing for approximating mappings between infinite-dimensional function spaces. A primary application of operator learning is the development of surrogate models for the solution operators of partial differential equations (PDEs). These methods can also be used to develop black-box simulators to model system behavior from experimental data, even without a known mathematical model. In this article, we begin by formalizing operator learning as a function-to-function regression problem and review some recent developments in the field. We also discuss PDE-specific operator learning, outlining strategies for incorporating physical and mathematical constraints into architecture design and training processes. Finally, we end by highlighting key future directions such as active data collection and the development of rigorous uncertainty quantification frameworks.

算子学习科学计算PDE建模代理模型

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