Nonlinear PDE models for deep learning architecture stability analysis

Stability, robustness, and convergence are problems that deep learning systems often have to deal with when training dynamics aren’t linear and there are hostile changes. Nonlinear partial differential equation (PDE) models are used in this study to look at and improve the stability of deep learning. Neural dynamics are connected to PDE models, and nonlinear diffusion processes show how weight changes over time and keep things from becoming unstable. Numerical discretization and large-scale computing methods make it possible to run models on systems that are very complicated. Compared to baseline models, the results show big improvements in stability, accuracy of convergence, and resistance to changes.

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Publication Details

Journal
Journal of Interdisciplinary Mathematics
Published
2025-01-01
DOI
https://doi.org/10.47974/jim-2354
Primary Topic
Fault Detection and Control Systems
Type
article
Field-Weighted Citation Impact
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article

Nonlinear PDE models for deep learning architecture stability analysis

Pratik Ghutke, Sachin Harne, Priti C. Shende, Cuddapah Anitha et al.
Journal of Interdisciplinary Mathematics
Fault Detection and Control Systems
article

Nonlinear PDE models for deep learning architecture stability analysis

Pratik Ghutke, Sachin Harne, Priti C. Shende, Cuddapah Anitha, Vimal Bibhu, G. Sasikala
article en

Abstract

Stability, robustness, and convergence are problems that deep learning systems often have to deal with when training dynamics aren’t linear and there are hostile changes. Nonlinear partial differential equation (PDE) models are used in this study to look at and improve the stability of deep learning. Neural dynamics are connected to PDE models, and nonlinear diffusion processes show how weight changes over time and keep things from becoming unstable. Numerical discretization and large-scale computing methods make it possible to run models on systems that are very complicated. Compared to baseline models, the results show big improvements in stability, accuracy of convergence, and resistance to changes.

Journal of Interdisciplinary MathematicsVol. 28(6)
Openalex Percentile: Top 66%
Fault Detection and Control Systems
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