锌黄锡矿
材料科学
光电子学
重组
捷克先令
接受者
光伏系统
导带
太阳能电池
接口(物质)
异质结
化学
电气工程
凝聚态物理
电子
物理
工程类
生物化学
毛细管数
量子力学
毛细管作用
复合材料
基因
作者
Jianjun Li,Jialiang Huang,Yanchan Huang,Hitoshi Tampo,T. Sakurai,Chao Chen,Kaiwen Sun,Chang Yan,Xin Cui,Yaohua Mai,Xiaojing Hao
出处
期刊:Solar RRL
[Wiley]
日期:2021-08-05
卷期号:5 (10)
被引量:39
标识
DOI:10.1002/solr.202100418
摘要
Kesterite Cu 2 ZnSnS 4 (CZTS) solar cell has emerged as one of the most promising thin‐film photovoltaic technologies that allows for cheap, clean, and efficient renewable power in the future. Nevertheless, limited by the large photovoltage deficit caused by severe interface recombination, the potential of CZTS solar cells is far from being fully tapped. Herein, it is demonstrated that the carrier density of the CZTS absorber and the acceptor‐like interface defects are two critical factors governing the interface recombination in addition to the unfavorable conduction band alignment. Results of device simulation suggest that passivating the acceptor‐like interface defects combined with appropriate absorber carrier density is the essential way to promote the photovoltage and efficiency of CZTS solar cells to a more competitive level. It is believed that these results could be generally applicable to the interface recombination of other heterojunction solar cells.
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