纳米点
钙钛矿(结构)
太阳能电池
纳米晶
材料科学
带隙
纳米技术
钙钛矿太阳能电池
图层(电子)
吸收(声学)
混合太阳能电池
化学工程
量子点太阳电池
光电子学
Crystal(编程语言)
化学稳定性
硅
理论(学习稳定性)
硒化铜铟镓太阳电池
电子迁移率
活动层
质量(理念)
宽禁带半导体
能量转换效率
光伏
单晶硅
科技与社会
补语(音乐)
作者
Ruoshui Li,Chunyan Deng,Yuan Xu,Lin Gao,Fengli Liu,Yu Jing,Jihuai Wu,Zhang Lan
出处
期刊:Solar RRL
[Wiley]
日期:2025-10-16
卷期号:9 (22)
标识
DOI:10.1002/solr.202500543
摘要
Since the commercialization of perovskite solar cells (PSCs) for deep water, device stability has become critical. Although solar cells based on all‐inorganic perovskite are a kind of device with wide application prospects due to the adjustable bandgap of the optical absorption layer material. At present, compared with organic–inorganic hybrid PSCs, there are still more unsolved problems. In this work, we introduce an organosilica nanodot (OSiND) with good electron transport ability as a complement to SnO 2 . By mixing SnO 2 nanocrystals with smaller OSiNDs, a sandstone mixed structure is formed, which promotes carrier extraction and improves the crystal quality of the perovskite layer. Devices with better performance and significantly improved stability are obtained. Through the study on hybrid perovskite and the observation of device aging results under different conditions, it is proven that OSiNDs are of great significance to obtain better quality perovskite.
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