通过自动气体淬火提高金属卤化物包晶太阳能电池的再现性

APL Energy Pub Date : 2023-12-01 DOI:10.1063/5.0174396
Samantha C. Kaczaral, Daniel A. Morales, Samuel W. Schreiber, Daniel Martinez, Ashley M. Conley, Randi Herath, G. Eperon, Joshua J. Choi, M. McGehee, David T. Moore
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引用次数: 0

摘要

实现可重现的过氧化物太阳能电池制造是使其成为可扩展技术的关键。我们展示了一种自动气体淬火系统,以提高实验室规模的包光体太阳能电池可重复性。我们利用原位光致发光来监测包晶体薄膜的形成与手套箱内气氛的关系,并发现与气体淬火法相比,反溶剂淬火法对残留的前驱体溶剂更为敏感。我们观察到气体淬火比反溶剂淬火的重现性更好,因为气体淬火能在手套箱中保持更稳定的气氛。自动气淬工艺可生产出高性能的设备,而且批次与批次之间以及研究人员与研究人员之间都具有可重复性。对气淬膜的形成与溶剂气氛和淬火速度的函数关系的深入了解将有助于为未来大规模制造系统的研究提供信息。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Improved reproducibility of metal halide perovskite solar cells via automated gas quenching
Achieving reproducible perovskite solar cell fabrication is crucial for making it a scalable technology. We demonstrate an automated gas quenching system to improve perovskite solar cell reproducibility at the lab-scale. We use in situ photoluminescence to monitor the perovskite film formation as a function of the atmosphere in the glove box and find that antisolvent quenching is more sensitive to lingering precursor solvents than the gas quenching method. We observe a better reproducibility with gas quenching than with antisolvent quenching because it maintains a more consistent atmosphere in the glove box. The automated gas quenching process leads to high performing devices that are reproducible both batch to batch and researcher to researcher. The insights into gas quenching film formation as a function of solvent atmosphere and quench velocity will help inform future studies on large scale fabrication systems.
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