A study of the degradation mechanisms of ultra-thin CIGS solar cells submitted to a damp heat environment

T. Kohl, B. Vermang, J. Wild, D. Buldu, G. Birant, G. Brammertz, N. A. Rivas, F. Renner, M. Meuris, J. Poortmans
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引用次数: 2

Abstract

Producing the green energy of tomorrow will require highly efficient as well as energy-, and cost-effective solar cells in addition to having reasonable lifetimes. To determine if CIGS can be made to submit to these constraints, we produced ultra-thin (500nm) single-stage coevaporated CIGS solar cells. We doped these cells with varying amounts and types of alkali atoms and submitted them to accelerated lifetime testing. Results showed definite effect of the alkali concentration on the degradation of the cells but showed limited migration. Instead, the seeping of water into the grain boundaries was identified as the main culprit for performance degradation.
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超薄CIGS太阳能电池在湿热环境下的降解机理研究
生产未来的绿色能源除了需要合理的使用寿命外,还需要高效、节能、低成本的太阳能电池。为了确定CIGS是否能够满足这些限制,我们生产了超薄(500nm)单级共蒸发CIGS太阳能电池。我们在这些电池中掺杂了不同数量和类型的碱原子,并将它们提交给加速寿命测试。结果表明,碱浓度对细胞的降解有一定的影响,但对细胞的迁移有限制。相反,水渗入晶界被认为是性能下降的罪魁祸首。
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