钙钛矿(结构)
结晶度
材料科学
能量转换效率
纳米技术
电子迁移率
光伏系统
图层(电子)
电子传输链
光电子学
电导率
工程物理
电子
化学工程
化学
物理
复合材料
电气工程
工程类
量子力学
物理化学
生物化学
作者
Shumin Huang,Peiyu Li,Jing Wang,J.C. Huang,Qifan Xue,Nianqing Fu
标识
DOI:10.1016/j.cej.2022.135687
摘要
The organic–inorganic hybrid perovskite solar cells (PSCs) have been emerging as a promising photovoltaic technology with the rapid development of power conversion efficiency (PCE). The electron transport layer (ETL) is found to play a critical role in the PCE, stability and reliability of the solar cells. SnO2, which can be processed at low temperature and possesses the merits of good energy band level and high electron mobility, has been deemed as an excellent alternative ETL material to the classical TiO2. In the past few years, modifications that can finely tailor the morphologies, crystallinity, energy level, electron mobility, conductivity, defects, surface chemical states, and interface condition of SnO2-ETL have contributed dominantly to the fast development of the SnO2-ETL based PSCs. In this review, the recent advances of modified SnO2 as ETLs for PSCs are summarized and the corresponding mechanisms for the performance improvements are comprehensively discussed. Finally, the challenges and the opportunities for the future development of SnO2-ETL based PSCs are proposed.
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