Xixiang Xu, Hui Zhao, X. Ru, Xinghong Zhou, Chengjian Hong, Chongyan Lian, C. Peng, M. Qu, Yue Zhang, Yunxue Cao, A. Hu, J. Huang, Jack Xiao, Chuck Hu, Jinyan Zhang, Yuanmin Li
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引用次数: 0
Abstract
We report the recent progress in the development of a-Si/a-SiGe and a-Si/nc-Si multijunction solar cells on the product size substrate of 0.79m2, and heterojunction solar cells on 152.3cm2 n-type silicon wafer at Hanergy. Main experimental results cover three aspects: (a) for a-Si/a-SiGe multijunction solar cells, significant improvement in a-Si/a-SiGe triple junction PV module efficiency by optimizing a-Si and a-SiGe component cell performance, (b) for a-Si/nc-Si double junction solar cells, optimization of a-Si thin film and doped layer/buffer layer used for a-Si top cells, and device quality nc-Si bottom cells , and (c) for heterojunction solar cell, development of intrinsic a-Si for superior silicon wafer surface passivation, wafer surface texturing process, n-type a-Si thin films as window layers, and ITO layers. We attained 11% initial total area efficiency for a-Si/a-SiGe triple junction modules, and 12.8% initial total area efficiency for a-Si/nc-Si double junction modules, and 21.7% total area efficiency for heterojunction solar cells using n-type wafers.
本文报道了汉能在0.79m2产品衬底上制备a-Si/a-SiGe和a-Si/nc-Si多结太阳能电池和在152.3cm n型硅片上制备异质结太阳能电池的最新进展。主要实验结果包括三个方面:(a)对于a- si /a- sige多结太阳能电池,通过优化a- si和a- sige组件电池性能,显著提高了a- si /a- sige三结光伏组件效率;(b)对于a- si /nc-Si双结太阳能电池,优化了a- si薄膜和用于a- si顶部电池的掺杂层/缓冲层,并提高了nc-Si底部电池的器件质量;(c)对于异质结太阳能电池,开发了具有优异硅片表面钝化性能的本构a- si。晶圆表面织构工艺,n型a-Si薄膜作为窗口层,和ITO层。我们获得了a-Si/a-SiGe三结模块的初始总面积效率为11%,a-Si/nc-Si双结模块的初始总面积效率为12.8%,使用n型晶圆的异质结太阳能电池的总面积效率为21.7%。