钙钛矿(结构)
材料科学
卤化物
光伏系统
化学物理
相变
放松(心理学)
工作(物理)
散射
工程物理
化学工程
光学
凝聚态物理
无机化学
热力学
物理
工程类
生态学
社会心理学
心理学
化学
生物
作者
Guixiang Li,Zhenhuang Su,Meng Li,Harrison Ka Hin Lee,Ram Datt,Declan Hughes,Chenyue Wang,Marion A. Flatken,Hans Köbler,José J. Jerónimo-Rendon,R. Mathew Roy,Feng Yang,Jorge Pascual,Zhe Li,Wing Chung Tsoi,Xingyu Gao,Zhao‐Kui Wang,Michael Saliba,Antonio Abate
标识
DOI:10.1002/aenm.202202887
摘要
Abstract Metal halide perovskite solar cells may work for application in extreme temperatures, such as those experienced under extraterrestrial conditions. However, device performances in extreme temperatures are poorly investigated. This work systematically explores the performance of perovskite solar cells between −160 and 150 °C. In situ grazing‐incidence wide‐angle X‐ray scattering discloses perovskite phase transition and crystal disordering as dominant factors for the temperature‐dependent device efficiency deterioration. It is shown that perovskite lattice strain and relaxation originating from extreme temperature variations are recoverable, and so are the perovskite structure and photovoltaic performances. This work provides insights into the functioning under extreme temperatures, clarifying bottlenecks to overcome and the potential for extraterrestrial applications.
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