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Main Authors: Bereza, A. S., Chernyavsky, A. E., Perminov, S. V., Shapiro, D. A.
Format: Preprint
Published: 2024
Subjects:
Online Access:https://arxiv.org/abs/2406.13962
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author Bereza, A. S.
Chernyavsky, A. E.
Perminov, S. V.
Shapiro, D. A.
author_facet Bereza, A. S.
Chernyavsky, A. E.
Perminov, S. V.
Shapiro, D. A.
contents The investigation into the scattering of plane waves by a periodic array of parallel cylinders utilizes the method of cylindrical wave decomposition, thereby reducing the problem complexity to a series of linear algebraic equations. This methodology proves particularly efficacious when the diameter of cylinders is significantly less than the wavelength of incident wave, resulting in a rapid diminution of the solution coefficients as a function of azimuth numbers. Such a reductionist approach facilitates the computation of scattered radiation intensity in near field. Subsequent cross-validation with numerical results corroborates the theoretical findings, showcasing a qualitative concordance between the two. This study underscores the efficacy of cylindrical wave decomposition in simplifying and accurately modeling wave scattering phenomena in structured media.
format Preprint
id arxiv_https___arxiv_org_abs_2406_13962
institution arXiv
publishDate 2024
record_format arxiv
spellingShingle Analyzing Near-Field Intensity Distribution in Subwavelength Gratings through Cylindrical Wave Decomposition
Bereza, A. S.
Chernyavsky, A. E.
Perminov, S. V.
Shapiro, D. A.
Optics
The investigation into the scattering of plane waves by a periodic array of parallel cylinders utilizes the method of cylindrical wave decomposition, thereby reducing the problem complexity to a series of linear algebraic equations. This methodology proves particularly efficacious when the diameter of cylinders is significantly less than the wavelength of incident wave, resulting in a rapid diminution of the solution coefficients as a function of azimuth numbers. Such a reductionist approach facilitates the computation of scattered radiation intensity in near field. Subsequent cross-validation with numerical results corroborates the theoretical findings, showcasing a qualitative concordance between the two. This study underscores the efficacy of cylindrical wave decomposition in simplifying and accurately modeling wave scattering phenomena in structured media.
title Analyzing Near-Field Intensity Distribution in Subwavelength Gratings through Cylindrical Wave Decomposition
topic Optics
url https://arxiv.org/abs/2406.13962