Large-grain polysilicon seed layers on glass for epitaxial silicon solar cells

S. Shumate, H. Mohammed, D. Hutchings, H. Naseem
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引用次数: 3

Abstract

Thin-film silicon solar cells remain a promising technology to approach wafer-based efficiencies at thin-film costs. Epitaxial growth of silicon cells on seed layers has been a prominent approach with demonstrated efficiencies. However, cost-effective seed layers on glass or other low-cost substrates still remain one of the biggest road blocks to the success of this technology. Top-down aluminum induced crystallization (TAIC) has been developed to produce large-grain silicon seed layers on glass. Initial cells have been fabricated by Hot-Wire CVD at the National Renewable Energy Laboratory (NREL). The seed layers with grain-gaps show poor electrical characteristics comparable to reported cells grown on wafer templates with defect densities around 2 × 106 cm-3. New seed layers without grain gaps have been developed and are in queue for cell fabrication.
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外延硅太阳能电池用玻璃上的大颗粒多晶硅种子层
薄膜硅太阳能电池仍然是一种很有前途的技术,以薄膜成本接近晶圆基效率。硅细胞在种子层上的外延生长一直是一个突出的方法,并证明了效率。然而,在玻璃或其他低成本基板上具有成本效益的种子层仍然是该技术成功的最大障碍之一。自顶向下铝诱导结晶技术(TAIC)已被开发用于在玻璃上生产大晶粒硅种子层。最初的电池是在国家可再生能源实验室(NREL)用热线CVD制造的。与在缺陷密度约为2 × 106 cm-3的晶圆模板上生长的细胞相比,具有晶粒间隙的种子层表现出较差的电特性。没有颗粒间隙的新种子层已经形成,正在等待细胞制造。
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