InP太阳能电池的表面复合与高效率

C. Keavney, V. Haven, S. Vernon
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引用次数: 23

摘要

通过调整电池结构以适应高表面复合速度,已经生产出AM0转换效率超过19%的InP太阳能电池。这是通过将结非常靠近表面并使用前表面场结构来实现的,其中掺杂从结增加到前表面。对细胞短波长的量子效率与结深的函数关系的分析表明,表面复合速度很高(>10/sup 6/ cm/s),这与其他技术的测量结果不一致。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Surface recombination and high efficiency in InP solar cells
InP solar cells with AM0 conversion efficiencies exceeding 19% have been produced by adapting the cell structure to accommodate a high surface recombination velocity. This is done by placing the junction very close the surface and using a front-surface field structure in which the doping increases from the junction to the front surface. Analysis of the quantum efficiency at short wavelengths of cells as a function of junction depth indicates that the surface recombination velocity is high (>10/sup 6/ cm/s), which disagrees with measurements made by other techniques.<>
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