材料科学
钙钛矿(结构)
涂层
紫外线
化学工程
卤化物
光催化
光伏系统
能量转换效率
多孔性
复合材料
光电子学
无机化学
化学
催化作用
生物化学
生物
工程类
生态学
作者
Seyyedeh Sedigheh Azad,Reza Keshavarzi,Valiollah Mirkhani,Majid Moghadam,Shahram Tangestaninejad,Iraj Mohammadpoor‐Baltork
标识
DOI:10.1038/s41598-024-57133-8
摘要
Abstract Organometal halide perovskite solar cells have reached a high power conversion efficiency of up to 25.8% but suffered from poor long-term stability against environmental factors such as ultraviolet irradiation and humidity of the environment. Herein, two different multifunctional transparent coatings containing AZO and ZnO porous UV light absorbers were employed on the front of the PSCs. This strategy is designed to improve the long-term stability of PSCs against UV irradiation. Moreover, the provided coatings exhibit two additional roles, including self-cleaning and high wear resistance. In this regard, AZO coating showed higher wear resistance compared to the ZnO coating. The photocatalytic self-cleaning properties of these prepared coatings make them stable against environmental pollutants. Furthermore, appropriate mechanical properties such as high hardness and low coefficient of friction that leads to high resistance against wear are other features of these coatings. The devices with AZO/Glass/FTO/meso-TiO 2 /Perovskite/spiro/Au and ZnO/Glass/FTO/meso-TiO 2 /Perovskite/spiro/Au configurations maintained 40% and 30% of their initial performance for 100 h during 11 days (9 h per day) against the UV light with the high intensity of 50 mW cm -2 which is due to higher absorption of AZO compared with ZnO in the ultraviolet region. Since AZO has a higher light transmission in the visible region in comparison to ZnO, perovskite cells with AZO protective layers have higher efficiency than perovskite cells with ZnO layers. It is worth noting that the mentioned features make these coatings usable for cover glass in all types of solar cells.
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