
TL;DR
This paper introduces a novel numerical method using multilayer perceptrons to efficiently find the extrema of functionals, demonstrated through physics applications and adaptable to various differentiability conditions.
Contribution
It develops a new MLP-based approach for extremum finding of functionals, extending applicability to non-differentiable points and surfaces.
Findings
Successfully applied to three physics scenarios
Applicable to second-order differentiable functions
Extendable to non-differentiable but continuous cases
Abstract
Multilayer perceptron (MLP) is a class of networks composed of multiple layers of perceptrons, and it is essentially a mathematical function. Based on MLP, we develop a new numerical method to find the extrema of functionals. As demonstrations, we present our solutions in three physic scenes. Ideally, the same method is applicable to any cases where the objective curve/surface can be fitted by second-order differentiable functions. This method can also be extended to cases where there are a finite number of non-differentiable (but continuous) points/surfaces.
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Taxonomy
TopicsAdvanced Control Systems Optimization
