材料科学
钙钛矿(结构)
光伏系统
能量转换效率
制作
介孔材料
电子
工程物理
平面的
光电子学
图层(电子)
化学工程
纳米技术
电气工程
化学
计算机图形学(图像)
工程类
物理
病理
医学
量子力学
催化作用
生物化学
替代医学
计算机科学
作者
Kaimo Deng,Qinghua Chen,Liang Li
标识
DOI:10.1002/adfm.202004209
摘要
Abstract The electron transport layer plays a key role in affecting the charge dynamics and photovoltaic parameters in perovskite solar cells. Compared to other counterparts, SnO 2 has unique advantages such as low temperature fabrication and high electron extraction ability, and it receives extra attentions from the research community since the first report. Planar‐type perovskite solar cells based on SnO 2 exhibit a simple architecture and state of art device can achieve a power conversion efficiency of over 23%, which can compete with traditional devices using mesoporous TiO 2 . The modification engineering of SnO 2 has contributed significantly to the enhanced device performance during the past years. There is still great potential for further improvement in the efficiency and long‐term stability. Herein recent advances toward modifying the optoelectronic properties of SnO 2 from the perspective of the optimization strategies are summarized and the remaining challenges as well as opportunities for future research are discussed. The continuous efforts dedicated to this exciting field may pave the way for developing commercial perovskite solar cells.
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