材料科学
封装(网络)
原子层沉积
太阳能电池
钙钛矿太阳能电池
卤化物
制作
透射率
化学工程
薄膜
等离子体
光电子学
纳米技术
无机化学
化学
替代医学
工程类
病理
物理
医学
量子力学
计算机科学
计算机网络
作者
Haoran Wang,Yepin Zhao,Zhenyu Wang,Yunfei Liu,Zipeng Zhao,Guangwei Xu,Tae Hee Han,Jin‐Wook Lee,Chen Chen,Daqian Bao,Yu Huang,Yu Duan,Yang Yang
出处
期刊:Nano Energy
[Elsevier BV]
日期:2019-12-12
卷期号:69: 104375-104375
被引量:119
标识
DOI:10.1016/j.nanoen.2019.104375
摘要
Unstable nature against moisture is one of the major issues of metallic halide perovskite solar cell application. Thin-film encapsulation is known as a powerful approach to notably enhance the operational stability of perovskite solar cells in humid environment. However, encapsulation layers with ideal gas barrier performance always require harsh fabrication conditions with high temperature and harmful precursors. For this reason, here we provide a mild encapsulation strategy to maintain the original performance of solar cell devices by utilization of ethylene glycol-induced immediate layer to minimize the damage of plasma-enhanced atomic layer deposition to perovskite solar cells. The organic-inorganic alternating encapsulation structure has exhibited a water vapor transmittance rate of 1.3 × 10−5 g m−2·day−1, which is the lowest value among the reported thin film encapsulation layers of perovskite solar cells. Our perovskite solar cells have survived at 80% relative humidity and 30 °C for over 2000 h while preserving 96% of its initial performance.
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