Radiation-hard, lightweight 12% AM0 BOL InP/Si solar cells

S. Wojtczuk, P. Colter, N. Karam, H. Serreze, G. Summers, R. Walters
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引用次数: 4

Abstract

Indium phosphide (InP) space solar cells were made by Spire on lightweight Si wafers to greatly increase the cell end-of-life (EOL) power density. A NASA-measured best cell efficiency of 12.5% was obtained at one-sun AM0 beginning-of-life (BOL) for a 2/spl times/4 cm cell. Average efficiency for fifteen 2/spl times/2 cm InP heteroepitaxial cells on 16 mil Si wafers tested by NASA was 12.3%. Data are presented comparing 1 MeV electron and 3.9 MeV alpha particle irradiation showing relatively little cell power output degradation out to a very high fluence (less than 20% after a fluence of about 4/spl times/10/sup 16/ 1 MeV electrons/cm/sup 2/, about 40/spl times/ the "standard" fluence). Calculations are presented which show that in very high radiation environments (e.g. van Allen proton belts), these cells can provide over twice as much EOL power density than GaAs/Ge or Si cells.
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抗辐射,重量轻,12% AM0 BOL InP/Si太阳能电池
Spire公司在轻质硅片上制备了磷化铟(InP)空间太阳能电池,大大提高了电池的寿命终止功率密度。nasa测量的最佳细胞效率为12.5%,在一个太阳AM0开始生命(BOL), 2/spl倍/4厘米的细胞。NASA在16mil硅片上测试的15个2/spl次/ 2cm InP异质外延电池的平均效率为12.3%。比较1 MeV电子和3.9 MeV α粒子辐照的数据显示,在非常高的影响下,电池输出功率衰减相对较小(在约4/spl倍/10/sup / 16/ 1 MeV电子/cm/sup 2/,约40/spl倍/“标准”影响下,电池输出功率衰减小于20%)。计算表明,在非常高的辐射环境中(例如范艾伦质子带),这些电池可以提供比GaAs/Ge或Si电池多两倍的EOL功率密度。
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