Large-area mask patterning for solar cell applications

Jingwen Hu, J. Maksimovic, S. Ng, Stefan Lundgaard, Y. Nishijima, S. Juodkazis
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引用次数: 1

Abstract

Light harvesting using photonic crystal (PhC) surface patterns provides an opportunity to surpass the ray-optics defined light trapping and to approach thermodynamic ShockleyQueisser limit of solar cell efficiency, which for a single junction Si solar cell is ~ 32%. For an industry amenable nano-patterning of Si solar cells, we used laser direct write and stepper lithography based approaches for defining a large area (1 cm2) light trapping PhC patterns on silicon. Nanoholes of ~ 500 nm in diameter were fabricated by direct laser writing in a thin layer of chromium to act as a mask for subsequent reactive plasma etching to fabricate the nanostructures forming a PhC surface over a square centimeter. Surface area fabrication throughput was improved by more than order of magnitude as compared with electron beam lithography required to achieve sub-1 μm resolution.
太阳能电池应用的大面积掩模图案
利用光子晶体(PhC)表面图案的光收集提供了一个超越光线光学定义的光捕获和接近太阳能电池效率的热力学ShockleyQueisser极限的机会,单结硅太阳能电池的效率为~ 32%。对于工业适用的硅太阳能电池纳米图案,我们使用激光直接写入和基于步进光刻的方法在硅上定义大面积(1平方厘米)的光捕获PhC图案。采用直接激光写入的方法在薄层铬上制备了直径约500 nm的纳米孔,作为后续反应等离子体蚀刻的掩膜,以制备形成超过一平方厘米的PhC表面的纳米结构。与电子束光刻技术相比,达到1 μm以下的分辨率所需的表面积制造吞吐量提高了一个数量级以上。
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