Design improvements for the polyhedral specular reflector spectrum-splitting module for ultra-high efficiency (>50%)

C. Eisler, Emily C. Warmann, C. Flowers, Michelle Dee, Emily D. Kosten, H. Atwater
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引用次数: 5

Abstract

A spectrum-splitting module design, the polyhedral specular reflector (PSR), is proposed for ultra-high photovoltaic efficiency (>50%). Incident light is mildly concentrated (≤16 suns) and subsequently split seven ways by a series of multilayer dielectric filters. The split spectrum is directed into compound parabolic concentrators (CPCs) and each concentrates a given slice of the spectrum onto one of seven subcells for conversion. We have recently made significant improvements to the design, such as vertically stacking each submodule and rearranging the subcell order to increase the optical efficiency of the design. We optimize the concentration and composition of the parallelepiped prism (hollow vs. solid) and model designs with >50% module efficiencies including optical and cell nonidealities.
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多面体镜面反射镜分光模块超高效率(>50%)的设计改进
为了实现超高光伏效率(>50%),提出了一种分光模块——多面体镜面反射器(PSR)。入射光轻度集中(≤16个太阳),随后通过一系列多层介质滤光片分成7种方式。分裂的光谱被引导到复合抛物面聚光器(cpc)中,每个聚光器将给定的光谱片集中到七个子单元中的一个上进行转换。我们最近对设计进行了重大改进,例如垂直堆叠每个子模块和重新排列子单元的顺序,以提高设计的光学效率。我们优化了平行六面体棱镜(空心与实心)的浓度和组成,并设计了>50%的模块效率,包括光学和细胞非理想性。
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