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Non-orthogonal FDTD simulations for photonic band structures, states density, and transmission/reflection of photonic crystals

机译:光子频带结构的非正交FDTD模拟,光子晶体的状态密度和透射/反射

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摘要

Photonic crystals have been widely studied in the fields of physics, material science and optical information technology. In general, the standard rectangular finite difference time domain (FDTD) method is used to predict the performances of photonic crystals. It is however very time consuming and inefficient. The current authors developed a software called GCFE, which is based on a non-orthogonal FDTD method. The software can be used to predict the photonic band structures, photonic states density and transmission and/or reflection coefficients for one-dimensional to three-dimensional photonic crystals. In the present paper, the derivations of the discrete Maxwell's equations in time-domain and space-domain and the derivation of the discrete transfer matrix in real-space domain are briefly described firstly. In addition, the design idea and the functions of GCFE version 2.0.00 are introduced. Moreover, the band structures, transmission and reflection coefficients and photonic states density for the photonic crystal with cube lattice are calculated by our GCFE software, and numerical application results are also shown.
机译:光子晶体已广泛研究了物理学,材料科学和光学信息技术领域。通常,标准矩形有限差分时域(FDTD)方法用于预测光子晶体的性能。然而,它非常耗时和效率低下。当前作者开发了一种名为GCFE的软件,基于非正交的FDTD方法。该软件可用于预测一维的光子带结构,光子状态密度和传输和/或反射系数,用于三维光子晶体的一维。在本文中,首先简要描述分离麦克斯韦尔方程在实时域中的离散麦克斯韦尔方程的推导和离散传输矩阵的推导。此外,介绍了设计理念和GCFE版本2.0.00的功能。此外,通过我们的GCFE软件计算具有立方格晶格的光子晶体的频带结构,传输和反射系数和光子状态密度,并通过我们的GCFE软件计算,并且还示出了数值应用结果。

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