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Autori principali: Fukasaku, Ryoya, Kabata, Yutaro, Okuno, Akifumi
Natura: Preprint
Pubblicazione: 2025
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Accesso online:https://arxiv.org/abs/2508.17783
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author Fukasaku, Ryoya
Kabata, Yutaro
Okuno, Akifumi
author_facet Fukasaku, Ryoya
Kabata, Yutaro
Okuno, Akifumi
contents This paper investigates a perceptron, a simple neural network model, with ReLU activation and a ridge-regularized mean squared error (RR-MSE). Our approach leverages the fact that the RR-MSE for ReLU perceptron is piecewise polynomial, enabling a systematic analysis using tools from computational algebra. In particular, we develop a Divide-Enumerate-Merge strategy that exhaustively enumerates all local minima of the RR-MSE. By virtue of the algebraic formulation, our approach can identify not only the typical zero-dimensional minima (i.e., isolated points) obtained by numerical optimization, but also higher-dimensional minima (i.e., connected sets such as curves, surfaces, or hypersurfaces). Although computational algebraic methods are computationally very intensive for perceptrons of practical size, as a proof of concept, we apply the proposed approach in practice to minimal perceptrons with a few hidden units.
format Preprint
id arxiv_https___arxiv_org_abs_2508_17783
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle Algebraic Approach to Ridge-Regularized Mean Squared Error Minimization in Minimal ReLU Neural Network
Fukasaku, Ryoya
Kabata, Yutaro
Okuno, Akifumi
Machine Learning
Artificial Intelligence
Computation
This paper investigates a perceptron, a simple neural network model, with ReLU activation and a ridge-regularized mean squared error (RR-MSE). Our approach leverages the fact that the RR-MSE for ReLU perceptron is piecewise polynomial, enabling a systematic analysis using tools from computational algebra. In particular, we develop a Divide-Enumerate-Merge strategy that exhaustively enumerates all local minima of the RR-MSE. By virtue of the algebraic formulation, our approach can identify not only the typical zero-dimensional minima (i.e., isolated points) obtained by numerical optimization, but also higher-dimensional minima (i.e., connected sets such as curves, surfaces, or hypersurfaces). Although computational algebraic methods are computationally very intensive for perceptrons of practical size, as a proof of concept, we apply the proposed approach in practice to minimal perceptrons with a few hidden units.
title Algebraic Approach to Ridge-Regularized Mean Squared Error Minimization in Minimal ReLU Neural Network
topic Machine Learning
Artificial Intelligence
Computation
url https://arxiv.org/abs/2508.17783