Ultralight-trapping filters with volume reflection holograms

Deming Zhang, J. Russo, M. Gordon, S. Vorndran, R. Kostuk
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Abstract

Light trapping is a useful approach for increasing the absorption of thin film photovoltaic (PV) cells. Simple light trapping can be achieved by incorporating a scattering layer on the top and bottom surface of cells and can increase absorption by a factor of 4n2. Recently, ultralight trapping using Rugate and 1-D photonic bandgap filters have been proposed to increase light trapping by a factor of 4n2 /sin2θ, where θ is half of the acceptance angle. In this paper, we present the design of a holographic ultralight trapping filter. The holographic filter can be implemented in large areas at a low cost, which makes it scalable for PV applications. A design is presented that increases the optical path length for near bandgap wavelengths in a thin-film silicon PV cell. The optical path length enhancement is converted to electrical output using the PC-1D simulation software. The short-circuit current for a 10-µm-thick silicon PV cell increases by nearly 14.7% relative to a cell without light trapping.
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带有体反射全息图的超光捕获滤光片
光捕获是提高薄膜光伏电池吸收率的一种有效方法。简单的光捕获可以通过在电池的上下表面加入散射层来实现,并且可以将吸收率提高4n2倍。最近,利用Rugate和一维光子带隙滤波器的超光捕获被提出,将光捕获增加了4n2 /sin2θ,其中θ是接受角的一半。本文介绍了一种全息超光捕获滤波器的设计。全息滤光片可以低成本在大面积内实现,这使得其可扩展到光伏应用。提出了一种增加薄膜硅光伏电池近带隙波长光路长度的设计。利用PC-1D仿真软件将光路长度增强转换为电输出。10微米厚硅光伏电池的短路电流比没有光捕获的电池增加了近14.7%。
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