Performance Enhancement of Aluminum doped ZnO based Lead-free Perovskite Solar Cell

Kazi Barria Nine, Md. Nahid Haque Shazon, S. A. Mahmood
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Abstract

Lead halide based perovskite solar cells achieve a promising efficiency which exceeds 20%. However, due to the toxicity of lead it is unsuitable for wide application. Rather, lead-free absorber, CH3NH3SnI3 is a preferable choice for solar energy harvesting. In this work, a numerical analysis is presented for a planar PSC structure with CH3NH3SnI3 as an absorber, CH3NH3SnBr3 as a hole transporting layer and aluminum-doped zinc oxide as an electron transporting layer. The performance evaluation is done by varying the thickness and defect density of the absorber layer as well as the doping densities of the charge carrier transporting layers. The optimum thickness and defect density of the absorber layer are obtained to be 800 nm and 1013 cm−3, respectively. The optimum doping density for the charge carrier transporting layers is 1021 cm−3, After optimization, the final cell efficiency is found to be 19.34%.
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铝掺杂ZnO基无铅钙钛矿太阳能电池的性能增强研究
卤化铅钙钛矿太阳能电池的效率超过20%。然而,由于铅的毒性,它不适合广泛应用。相反,无铅吸收剂CH3NH3SnI3是太阳能收集的首选。本文对以CH3NH3SnBr3为吸收体,CH3NH3SnBr3为空穴输运层,掺铝氧化锌为电子输运层的平面PSC结构进行了数值分析。性能评价通过改变吸收层的厚度和缺陷密度以及载流子输运层的掺杂密度来完成。吸收层的最佳厚度为800 nm,缺陷密度为1013 cm−3。最佳的载流子输运层掺杂密度为1021 cm−3,优化后的电池效率为19.34%。
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