温度循环
钙钛矿(结构)
材料科学
分层(地质)
自行车
热的
光伏系统
纳米技术
光电子学
复合材料
工程物理
化学工程
地质学
气象学
电气工程
工程类
物理
地理
古生物学
构造学
考古
俯冲
作者
Ulas Erdil,Mark V. Khenkin,Walney Silva Araújo,Quiterie Emery,Iver Lauermann,Vasiliki Paraskeva,Matthew Norton,Sudhakar Vediappan,D. Kishore Kumar,Ritesh Kant Gupta,Iris Visoly‐Fisher,Maria Hadjipanayi,George E. Georghiou,Rutger Schlatmann,Antonio Abate,Eugene A. Katz,Carolin Ulbrich
标识
DOI:10.1002/ente.202401280
摘要
For the commercialization of perovskite solar cells (PSCs), detection of associated degradation mechanisms and mitigation of their effect is of paramount importance. The former requires outdoor and indoor stability tests to detect these mechanisms under real operation conditions and to accelerate them under controlled environments. Herein, the thermomechanical stability of encapsulated PSCs in outdoor tests at three locations coupled with indoor thermal cycling tests is investigated. Results show that encapsulant‐induced partial delamination can occur in outdoor and indoor tests, leading to disruption in device integrity and substantial loss in the cell active area and short‐circuit current. The findings suggest that delamination involves C 60 and SnO 2 layers as the mechanically weakest point in the device stack. To the best of our knowledge, this work is the first demonstration of delamination in encapsulated PSCs under real operation conditions. While partial delamination emerged on some of the cells exposed in Israel and Cyprus in just a few weeks, it did not occur in Germany over 2.5 years of outdoor exposure. This highlights the importance of multiclimate outdoor testing to validate the significance of failure modes observed through accelerated indoor testing.
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