用于聚光的砷化镓太阳能电池

J. Burgess, Robert P. Davis, B. Debney, R. Nicklin
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引用次数: 0

摘要

采用标准的理论建模技术,比较了具有梯度带隙和窗结构的GaAs/Ga1-xAlxAs太阳能电池的性能。在高水平的太阳能集中,优越的功率转换效率与梯度带隙结构获得。实现带隙分级需要在外延期间精确控制铝含量的分级,这是使用气相技术方便地实现的。为了生长出高质量的含铝化合物,本研究采用了金属有机化学气相沉积(moc.v.d)工艺。我们的系统是为快速生产大面积切片而设计的,完整的多层结构可以在两小时内制备完成。窗口型的太阳能电池结构已通过moc.v.d方法和液相外延(l.p.e)制备。测试电池已经使用内部加工技术制造,太阳能电池的性能已经在高达600的浓度比下进行了评估。在1个太阳下,l.p.e.生长的电池的性能与预测结果非常接近,收集效率达到95#x0025; Voc = 0.98 V,填充系数为0.8。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Gallium-arsenide solar cells for use with concentrated sunlight
The performance of GaAs/Ga1-xAlxAs solar cells with graded-band-gap and window structures has been compared using standard theoretical modelling techniques. At high levels of solar concentration, superior power-conversion efficiencies are obtained with the graded-band-gap structures. The realisation of band-gap grading requires a precise control of gradation of the aluminium content during epitaxy, which is conveniently achieved using a vapour-phase technique. To grow good-quality Al-containing compounds, we have adopted the metallo-organic chemical-vapour-deposition (m.o.c.v.d.) process for the present work. Our system is designed for a rapid throughput of large-area slices, and complete multilayer structures can be prepared in under two hours. Solar-cell structures of the window type have been prepared bythe m.o.c.v.d. method, and also by liquid-phase epitaxy (l.p.e.). Test cells have been fabricated using in-house processing technology, and solar-cell performance has been assessed at concentration ratios up to 600. The performance of the l.p.e.- grown cells fits closely to that predicted, with the collection efficiency reaching 95#x0025;, Voc = 0.98 V and a fill factor of 0.8 at 1 sun.
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