Optimization of multilayer antireflection coatings for improving performance of silicon solar cells

Md. Shaon Sarker, Most. Farzana Khatun, Sheikh Rashel Al Ahmed, J. Hossain
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引用次数: 4

Abstract

In this study, a comprehensive idea of designing multilayer antireflection coating (ARC) on the solar cell and minimization of the overall reflectance are provided. A theoretical model for the optimization of multilayer antireflection coating for solar cell has been presented on the basis of optical interference transfer-matrix theory. Also, PCID simulation has been carried out to understand the performance of silicon solar cell of antireflection coating. Reflectance calculation for various single, double and three ARCs on silicon substrate are presented. Optical reflection values were deduced with this transfer-matrix formulation via a personal computer using MATLAB program. The reflection loss has been calculated lower than 34.66%, 8.47%, and 5.71% using single, double, and three layers respectively with high refractive index materials. External quantum efficiencies (EQEs) of 65.34% and 81.81% were obtained for the single and double layers ARCs on silicon substrate. It was also observed that the thickness of the antireflection coating should be less about 200 nm. Therefore, it is suggested that the antireflection layers proposed in this study effective to improve the efficiency of solar cell.
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提高硅太阳能电池性能的多层增透涂层的优化
本研究提出了在太阳能电池上设计多层增透膜(ARC)和使总反射率最小化的综合思路。基于光干涉转移矩阵理论,提出了太阳能电池多层增透涂层优化的理论模型。同时,通过PCID仿真来了解增透涂层硅太阳电池的性能。给出了硅衬底上各种单弧、双弧和三弧的反射率计算。利用该传递矩阵公式,利用MATLAB程序在个人计算机上推导出了光学反射值。高折射率材料单层、双层和三层的反射损耗分别低于34.66%、8.47%和5.71%。硅衬底上单层和双层电弧的外量子效率分别为65.34%和81.81%。同时观察到增透膜的厚度应小于200 nm。因此,本研究提出的增透层可以有效地提高太阳能电池的效率。
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