砷化镓砷化镓太阳能电池的宽带超材料吸收体

Victor Du John H, B. Antony, Neelapala Nava Teja, Vinod Gandikota
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引用次数: 1

摘要

本文研究了一种用于太阳能电池的钨基六方谐振腔基超材料吸收体的完美吸收特性。本文展示了用硅和砷化镓(GaAs)材料制成的太阳能电池的最大吸收率。所提出的超材料吸收体在502太赫兹至678太赫兹的宽带频谱范围内具有提高吸收率的潜力,其峰值吸收发生在550太赫兹和650太赫兹。它是一个由三层组成的单元电池:称为衬底或基础层,固有层或中间层,以及顶层导电层或超材料层。在450THz ~ 750THz的总频率范围内,对该超材料吸波器进行了参数化分析。所述超材料以这种方式构造,其顶层导电层可具有较高的吸收率。用吸收和反射参数来描述这种变化。本工作的观察结果表明,吸光率取决于顶层使用的谐振器及其材料特性。这种吸收体可用于太阳能电池、太阳能加热和集成光学等领域。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Wide band Metamaterial Absorber for Gallium Arsenide GaAs solar cells
in this work the perfect absorption characteristics of a tungsten (W) based hexagonal resonator based metamaterial absorber for solar cell applications was investigated. The paper shows the maximum absorption of the solar cell created by using Silicon and Gallium Arsenide (GaAs) material. The proposed metamaterial absorber has the potential to improve the absorption rate over a wide band frequency spectrum of 502 THz to 678 THz, with the peak absorption occurring at 550 THz and 650 THz. It is a unit cell that is made up of three layers: named as the substrate or base layer, the intrinsic layer or middle layer, and the top conducting layer or the metamaterial layer. The parametric analysis of the metamaterial absorber is carried out in the total frequency range of 450THz to 750THz with different measurements of the unit cell. The metamaterial is constructed in such a manner, the top conducting layer may have a higher absorption rate. And absorption and reflection parameters are used to describe the variations. The observations in this work reveals that the absorptivity depends on the resonator used on the top layer with its material properties. An absorber of this kind will be useful for solar cell, solar heating, and integrated optics applications.
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