Materials aspects of multijunction solar cells

S.A. Hussien, P. Colter, A. Dip, J.R. Gong, M.U. Erdogan, S.M. Bedair
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引用次数: 4

Abstract

Atomic layer epitaxy (ALE) was used to grow several components of the cascade solar cell structure in the AlGaAs/GaAs system. An ALE reactor was constructed for multiwafer growth with a growth rate of 0.6 μm h−1. Device quality GaAs and AsxGa1−xAs films were grown with p-type background carbon doping in the ranges 1015–1019 cm−3 and 1016–1020 cm−3 respectively. N-type films were achieved by SiH4 doping, producing carrier concentrations in the range 1016–1018 cm−3. In addition, the potential applications of the ALE technique in the photovoltaic field are discussed.

多结太阳能电池的材料方面
采用原子层外延(ALE)技术在AlGaAs/GaAs体系中生长了多个级联太阳能电池结构。构建了一个生长速率为0.6 μm h−1的ALE反应器。在1015 ~ 1019 cm−3和1016 ~ 1020 cm−3范围内掺杂p型背景碳,生长出器件质量的GaAs和AsxGa1−xAs薄膜。通过SiH4掺杂制备了n型薄膜,其载流子浓度在1016 ~ 1018 cm−3之间。此外,还讨论了ALE技术在光伏领域的潜在应用。
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