Simulation of Light Trapping in Ultra-thin Crystalline Silicon Absorber with Silver Nanodisc Back Reflector

James E. Moore, W. Yoon, P. Jenkins, R. Walters
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Abstract

In this paper we simulate a nanodisc reflector array that can enhance light trapping to overcome the limitations of low absorption in thin crystalline Si (c-Si). We performed a numerical simulation for a cell design with a thin c-Si absorber layer less than 20$\mu$m thick. Our results show that a potential short circuit current increase of up to 22.9% is achievable, effectively doubling the optical path length compared to a planar metallic reflector.
银纳米片背向反射器在超薄晶体硅吸收器中的光捕获模拟
在本文中,我们模拟了一种纳米圆盘反射器阵列,它可以增强光捕获,以克服薄晶硅(c-Si)低吸收的局限性。我们对厚度小于20$\mu$m的薄c-Si吸收层电池设计进行了数值模拟。我们的研究结果表明,与平面金属反射器相比,可以实现高达22.9%的潜在短路电流增加,有效地增加了一倍的光程长度。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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