Certified machine learning: Rigorous a posteriori error bounds for PDE defined PINNs
Not on the map. Why?
Abstract (arXiv)
Prediction error quantification in machine learning has been left out of most methodological investigations of neural networks, for both purely data-driven and physics-informed approaches. Beyond statistical investigations and generic results on the approximation capabilities of neural networks, we present a rigorous upper bound on the prediction error of physics-informed neural networks. This bound can be calculated without the knowledge of the true solution and only with a priori available information about the characteristics of the underlying dynamical system governed by a partial differential equation. We apply this a posteriori error bound exemplarily to four problems: the transport equation, the heat equation, the Navier-Stokes equation and the Klein-Gordon equation.
Key facts. Cited by 8 papers in the map (data through 7 Oct 2026). Builds on 9 of its 50 references that are in the map. First posted on arXiv 7 Oct 2022.
Builds on
9 of 50 references.
References · 9
- 2019Hamiltonian Neural Networkscited by 702
- 2021Gradient-enhanced physics-informed neural networks for forward and inverse PDE problemscited by 220
- 2020A Method for Representing Periodic Functions and Enforcing Exactly Periodic Boundary Conditions with Deep Neural Networkscited by 86
- 2022Generic bounds on the approximation error for physics-informed (and) operator learningcited by 65
- 2022When Physics Meets Machine Learning: A Survey of Physics-Informed Machine Learningcited by 64
- 2019Quantifying the generalization error in deep learning in terms of data distribution and neural network smoothnesscited by 22
- 2021Physics-informed Neural Networks-based Model Predictive Control for Multi-link Manipulatorscited by 21
- 2022Certified machine learning: A posteriori error estimation for physics-informed neural networkscited by 15
- 2016Infinite-dimensional input-to-state stability and Orlicz spacescited by 2
Built on by
Citing papers per year: 2023: 1; 2024: 2; 2025: 2; 2026: 3.
8 papers.
- 2024Advancing Generalization in PINNs through Latent-Space Representationscited by 5
- 2025Prediction error certification for PINNs: Theory, computation, and application to Stokes flowcited by 4
- 2023PINNs error estimates for nonlinear equations in ℝ-smooth Banach spacescited by 2
- 2024PINNfluence: Interpreting PINNs through Influence Functionscited by 1
- 2025Fredholm Neural Networks for inverse problems in elliptic PDEscited by 1
- 2026Building Trust in PINNs: Error Estimation through Finite Difference Methodscited by 0
- 2026Man, Machine, and Mathematicscited by 0
- 2026One-Step Evolution for Long-Time Extrapolation: An Error-Bound-Informed and Prior-Guided Neural Residual Framework for Autonomous PDEscited by 0
- 2026One-Step Evolution for Long-Time Extrapolation: An Error-Bound-Informed and Prior-Guided Neural Residual Framework for Autonomous PDEs22 Aug 2026
- 2026Man, Machine, and Mathematics29 Apr 2026
- 2026Building Trust in PINNs: Error Estimation through Finite Difference Methods16 Mar 2026
- 2025Prediction error certification for PINNs: Theory, computation, and application to Stokes flow11 Aug 2025
- 2025Fredholm Neural Networks for inverse problems in elliptic PDEs8 Jul 2025
- 2024Advancing Generalization in PINNs through Latent-Space Representations28 Nov 2024
- 2024PINNfluence: Interpreting PINNs through Influence Functions13 Sep 2024
- 2023PINNs error estimates for nonlinear equations in ℝ-smooth Banach spaces18 May 2023