用于光捕获的GaAs-AlGaAS纳米线光子晶体的粒子群优化

L. Zagaglia, V. Demontis, F. Rossella, F. Floris
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引用次数: 7

摘要

半导体纳米线有序阵列代表了一类二维光子晶体,可以通过工程设计获得功能超材料。本文提出了一种基于粒子群优化算法的新方法,利用光子晶体的概念设计一种基于半导体纳米线的二维衍射光栅,该光栅能够保证光捕获的平面内耦合。该方法考虑到与纳米线阵列自下而上生长相关的实验约束,通过处理阵列的所有相关几何和形态特征作为输入数据集,并根据所需的超材料电磁功能返回作为输出的优化参数集。讨论了基于锥形GaAs-AlGaAs核壳纳米线异质结构阵列的研究实例。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Particle swarm optimization of GaAs-AlGaAS nanowire photonic crystals as two-dimensional diffraction gratings for light trapping
Semiconductor nanowire ordered arrays represent a class of bi-dimensional photonic crystals that can be engineered to obtain functional metamaterials. Here is proposed a novel approach, based on a particle swarm optimization algorithm, for using such a photonic crystal concept to design a semiconductor nanowire-based two-dimensional diffraction grating able to guarantee an in-plane coupling for light trapping. The method takes into account the experimental constraints associated to the bottom-up growth of nanowire arrays, by processing as input dataset all relevant geometrical and morphological features of the array, and returns as output the optimised set of parameters according to the desired electromagnetic functionality of the metamaterial. A case of study based on an array of tapered GaAs-AlGaAs core–shell nanowire heterostructures is discussed.
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