A simple algorithm for output range analysis for deep neural networks

This paper presents a simple algorithm for the output range estimation problem in Deep Neural Networks (DNNs) by integrating a Simulated Annealing (SA) algorithm tailored to operate within constrained domains and ensure convergence towards global optima. The method effectively addresses the challenges posed by the lack of local geometric information and the high nonlinearity inherent to DNNs, making it applicable to a wide variety of architectures, with a special focus on Residual Networks (ResNets) due to their practical importance. Unlike existing methods, our algorithm imposes minimal assumptions on the internal architecture of neural networks, thereby extending its usability to complex models. Theoretical analysis guarantees convergence, while extensive empirical evaluations—including optimization tests involving functions with multiple local minima—demonstrate the robustness of our algorithm in navigating non-convex response surfaces. The experimental results highlight the algorithm’s efficiency in accurately estimating DNN output ranges, even in scenarios characterized by high non-linearity and complex constraints.

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Publication Details

Journal
Cybernetics and Physics
Published
2025-09-30
DOI
https://doi.org/10.35470/2226-4116-2025-14-2-162-173
Primary Topic
Structural Health Monitoring Techniques
Type
article
Field-Weighted Citation Impact
0.00
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article

A simple algorithm for output range analysis for deep neural networks

Nilton Rojas, Helder Rojas, Luis Huamanchumo, J. B. Espinoza
Cybernetics and Physics
Structural Health Monitoring Techniques
article

A simple algorithm for output range analysis for deep neural networks

Nilton Rojas, Helder Rojas, Luis Huamanchumo, J. B. Espinoza
article en

Abstract

This paper presents a simple algorithm for the output range estimation problem in Deep Neural Networks (DNNs) by integrating a Simulated Annealing (SA) algorithm tailored to operate within constrained domains and ensure convergence towards global optima. The method effectively addresses the challenges posed by the lack of local geometric information and the high nonlinearity inherent to DNNs, making it applicable to a wide variety of architectures, with a special focus on Residual Networks (ResNets) due to their practical importance. Unlike existing methods, our algorithm imposes minimal assumptions on the internal architecture of neural networks, thereby extending its usability to complex models. Theoretical analysis guarantees convergence, while extensive empirical evaluations—including optimization tests involving functions with multiple local minima—demonstrate the robustness of our algorithm in navigating non-convex response surfaces. The experimental results highlight the algorithm’s efficiency in accurately estimating DNN output ranges, even in scenarios characterized by high non-linearity and complex constraints.

Cybernetics and Physics(Volume 14, 2025 Number 2)
Universidad Nacional de Piura (PE), Imperial College London (GB)
Openalex Percentile: Top 72%
Structural Health Monitoring Techniques
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