Approximation of solutions of parameter-dependent problems by residual neural networks

Ana Carpio
7/15/2026
math.NAcs.LGmath.AP

No confident code implementation found for this paper. 3 possible matches can be shown below.

Abstract

We develop a convergent scheme to train neural networks involving analytic activation functions based on gradient flows. Convergence properties are guaranteed by Lojasiewicz theory. The main advantage of this approach is its simplicity of implementation. The coefficients of the network are approximated by solving a system of ordinary differential equations. We test the method by constructing residual neural network approximations of solutions of parametric problems. The dependence of the solutions of simple ordinary differential equations on a few parameters is correctly reproduced. The solutions of inverse problems involving wave constraints which depend on a few parameters can be reasonably approximated, even in regions in which the problem is severely ill posed.

View on arXivView PDF

Code Implementations

No confident code match yet

We couldn't find an author-owned or strongly-evidenced community implementation for this paper. 3 weaker matches are hidden by default — verify before relying on them.

No code implementations found yet.

Know of an implementation? Let us know in the comments below!

Similar Papers

Cite this paper

@article{carpio2026approximation,
  title  = {Approximation of solutions of parameter-dependent problems by residual neural networks},
  author = {Ana Carpio},
  year   = {2026},
  eprint = {2607.13574},
  archivePrefix = {arXiv},
  url    = {http://arxiv.org/abs/2607.13574v1}
}

Add a badge to your README

Shows whether official code is linked for this paper.

Code of Paper badge
[![Code of Paper](https://codeofpaper.com/badge/2607.13574.svg)](https://codeofpaper.com/paper/2607.13574)

Discussion