GaAs1-xPx/Si1-yGey/Ge 三结太阳能电池的模拟与优化

Pub Date : 2024-01-01 DOI:10.15251/jor.2024.201.75
A. B. Azzououm, A. Aissat, J. Vilcot
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引用次数: 0

摘要

本文重点研究和模拟 GaAs1-xPx/Si1-yGey/Ge 三结太阳能电池结构。首先,研究了与硅锗层相关的应变和带隙能。最佳锗浓度为 0.88,应变约为 0.45%。然后,对荧光粉浓度对上层 GaAs1-xPx/Si0.12Ge0.88 的应变和带隙能的影响进行了优化。在室温条件下,吸收体厚度为 4.5 微米、x=0.47、应变不超过 1.5%时,最佳输出参数为 Jsc=34.41mA/cm2、Voc=1.27V、FF=88.42% 和 η=38.45%。通过这项研究,我们设计出了一种高效率、低成本的 3J 太阳能电池。
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Simulation and optimization of GaAs1-xPx/Si1-yGey/Ge triple junction solar cells
This paper focuses on studying and simulating a GaAs1-xPx/Si1-yGey/Ge triple-junction solar cell structure. First, the strain and the bandgap energy associated to the SiGe layer have been studied. The optimal germanium concentration is 0.88 with a strain around 0.45%. Then, the phosphor concentration effect on the strain and the bandgap energy of the upper layer GaAs1-xPx/Si0.12Ge0.88 has been optimized. At room temperature, the optimal output parameter reach Jsc=34.41mA/cm2 , Voc=1.27V, FF=88.42% and η=38.45% for an absorber thickness of 4.5µm and x=0.47, with a strain that doesn’t exceed 1.5%. This study has enabled us to design a high-efficiency, low cost 3J solar cell.
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