Исследование полос непрозрачности в фотонном кристалле, составленном из металлических либо диэлектрических цилиндров конечной длины / Investigation of Bandgaps in a Photonic Crystal Composed of Metal or Dielectric Cylinders of Finite Length

Донец И.В. / Donets, I.V.
Южный Федеральный Университет / Southern Federal University
Лерер А.М. / Lerer, A.M.
Южный Федеральный Университет / Southern Federal University
Цветковская С.М. / Tsvetkovskaya, S.M.
Донской Государственный Технический Университет / Don State Technical University
Выпуск в базе РИНЦ
Донец И.В., Лерер А.М., Цветковская С.М. Исследование полос непрозрачности в фотонном кристалле, составленном из металлических либо диэлектрических цилиндров конечной длины // Физические основы приборостроения. 2020. Т. 9. № 3(37). С. 78–85. DOI: 10.25210/jfop-2003-078085
Donets, I.V., Lerer, A.M., Tsvetkovskaya, S.M. Investigation of Bandgaps in a Photonic Crystal Composed of Metal or Dielectric Cylinders of Finite Length // Physical Bases of Instrumentation. 2020. Vol. 9. No. 3(37). P. 78–85. DOI: 10.25210/jfop-2003-078085

Аннотация: Развит строгий метод электродинамического анализа собственных волн фотонных кристаллов (ФК) составленных из периодических цилиндров. Цилиндры либо полые металлические, либо сплошные диэлектрические. Результаты верифицированы сравнением с результатами пакета на основе метода конечных элементов. Рассчитаны дисперсионные характеристики ФК в районе полосы непрозрачности в зависимости от направления распространения волны. Анализировались ФК трех типов — составленных из металлических цилиндров, диэлектрических цилиндров и воздушных цилиндрических отверстий в диэлектрике. Развитое программное обеспечение требует на 1-2 порядка меньше времени счета чем известные пакеты электродинамического моделирования.
Abstract: A strict method of electrodynamic analysis of the eigenwaves of photonic crystals (PC) composed of periodic cylinders has been developed. Cylinders are either hollow metal or solid dielectric. The results are verified by comparison with the results of the package based on the finite element method. The dispersion characteristics of the FC in the area of bandgap are calculated depending on the direction of wave propagation. Three types of FC were analyzed: made up of metal cylinders, dielectric cylinders, and air cylindrical holes in the dielectric. The developed software requires 1-2 orders of magnitude less time than the known packages of electrodynamic modeling.
Ключевые слова: электродинамический анализ, полоса непрозрачности, периодические цилиндры, photonic crystal, electrodynamic analysis, bandgap, электродинамический анализ

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