Super‐Resolution Neural Networks for High‐Contrast Electromagnetic Scattering Problems

ABSTRACT This letter proposes a super‐resolution (SR) neural network model for high‐contrast electromagnetic scattering problems. The model is designed to predict fine‐grid field distributions based on low‐cost coarse‐grid simulations. By integrating a spatial channel attention mechanism, the model enhances accuracy in capturing field discontinuities induced by strong scatterers. Additionally, a residual‐in‐residual architecture is incorporated to provide the network with sufficient depth for effective correction of dispersion errors. The efficiency and accuracy of the proposed model have been validated through numerical experiments. Comparative evaluations with a recently proposed electromagnetic SR network, supplemented by rigorous ablation studies, further demonstrate the superior performance of our approach in high‐contrast scenarios.

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Publication Details

Journal
Electronics Letters
Published
2025-01-01
DOI
https://doi.org/10.1049/ell2.70310
Primary Topic
Optical Systems and Laser Technology
Type
article
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article

Super‐Resolution Neural Networks for High‐Contrast Electromagnetic Scattering Problems

Shuwen Yang, Xinyue Zhang, Xingqi Zhang, Siyi Huang
Electronics Letters
Optical Systems and Laser Technology
article

Super‐Resolution Neural Networks for High‐Contrast Electromagnetic Scattering Problems

Shuwen Yang, Xinyue Zhang, Xingqi Zhang, Siyi Huang
article en

Abstract

ABSTRACT This letter proposes a super‐resolution (SR) neural network model for high‐contrast electromagnetic scattering problems. The model is designed to predict fine‐grid field distributions based on low‐cost coarse‐grid simulations. By integrating a spatial channel attention mechanism, the model enhances accuracy in capturing field discontinuities induced by strong scatterers. Additionally, a residual‐in‐residual architecture is incorporated to provide the network with sufficient depth for effective correction of dispersion errors. The efficiency and accuracy of the proposed model have been validated through numerical experiments. Comparative evaluations with a recently proposed electromagnetic SR network, supplemented by rigorous ablation studies, further demonstrate the superior performance of our approach in high‐contrast scenarios.

Electronics LettersVol. 61(1)
University College Dublin (IE), University of Alberta (CA)
Openalex Percentile: Top 90%
Optical Systems and Laser Technology
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