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Main Authors: Sun, Ming-Yan, Xu, Peng, Zhang, Jun-Jie, Du, Tai-Jiao, Wang, Jian-Guo
Format: Preprint
Published: 2024
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Online Access:https://arxiv.org/abs/2402.16920
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author Sun, Ming-Yan
Xu, Peng
Zhang, Jun-Jie
Du, Tai-Jiao
Wang, Jian-Guo
author_facet Sun, Ming-Yan
Xu, Peng
Zhang, Jun-Jie
Du, Tai-Jiao
Wang, Jian-Guo
contents We present JefiAtten, a novel neural network model employing the attention mechanism to solve Maxwell's equations efficiently. JefiAtten uses self-attention and cross-attention modules to understand the interplay between charge density, current density, and electromagnetic fields. Our results indicate that JefiAtten can generalize well to a range of scenarios, maintaining accuracy across various spatial distribution and handling amplitude variations. The model showcases an improvement in computation speed after training, compared to traditional integral methods. The adaptability of the model suggests potential for broader applications in computational physics, with further refinements to enhance its predictive capabilities and computational efficiency. Our work is a testament to the efficacy of integrating attention mechanisms with numerical simulations, marking a step forward in the quest for data-driven solutions to physical phenomena.
format Preprint
id arxiv_https___arxiv_org_abs_2402_16920
institution arXiv
publishDate 2024
record_format arxiv
spellingShingle JefiAtten: An Attention Based Neural Network Model for Solving Maxwell's Equations with Charge and Current Sources
Sun, Ming-Yan
Xu, Peng
Zhang, Jun-Jie
Du, Tai-Jiao
Wang, Jian-Guo
Computational Physics
We present JefiAtten, a novel neural network model employing the attention mechanism to solve Maxwell's equations efficiently. JefiAtten uses self-attention and cross-attention modules to understand the interplay between charge density, current density, and electromagnetic fields. Our results indicate that JefiAtten can generalize well to a range of scenarios, maintaining accuracy across various spatial distribution and handling amplitude variations. The model showcases an improvement in computation speed after training, compared to traditional integral methods. The adaptability of the model suggests potential for broader applications in computational physics, with further refinements to enhance its predictive capabilities and computational efficiency. Our work is a testament to the efficacy of integrating attention mechanisms with numerical simulations, marking a step forward in the quest for data-driven solutions to physical phenomena.
title JefiAtten: An Attention Based Neural Network Model for Solving Maxwell's Equations with Charge and Current Sources
topic Computational Physics
url https://arxiv.org/abs/2402.16920