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通过活化惰性衬底在高效半透明和串联太阳能电池中用于溅射缓冲层的不可渗透原子层沉积

Impermeable Atomic Layer Deposition for Sputtering Buffer Layer in Efficient Semi-Transparent and Tandem Solar Cells via Activating Unreactive Substrate.

作者信息

Yu Bohao, Tang Fei, Yang Yuzhao, Huang Jincheng, Wu Shaohang, Lu Feiping, Duan Weiyuan, Lambertz Andreas, Ding Kaining, Mai Yaohua

机构信息

Institute of New Energy Technology, College of Information Science and Technology, Jinan University, Guangzhou, 510632, China.

Department of Physics, Tianshui Normal University, Tianshui, 741000, China.

出版信息

Adv Mater. 2023 Feb;35(5):e2202447. doi: 10.1002/adma.202202447. Epub 2022 Dec 20.

Abstract

Atomic layer deposition (ALD) turns out to be particularly attractive technology for the sputtering buffer layer when preparing the semi-transparent (ST) perovskite solar cells (PSCs) and the tandem solar cells. ALD process turns to be island growth when the substrate is unreactive with the ALD reactants, resulting in the pin-hole layer, which causes an adverse effect on anti-sputtering. Here, p-i-n structured PSCs with ALD SnO as sputtering buffer layer are conducted. The commonly used electron transportation layer (ETL) PCBM in the p-i-n structured PVK solar cell is an unreactive substrate that prevents the layer-by-layer growth for the ALD SnO . PCBM layer is activated by introducing reaction sites to form impermeable ALD layers. By introducing reaction sites/ALD SnO as sputtering buffer layer, the authors succeed to fabricate ST-PSCs and perovskite/silicon (double-side polished) tandem solar cells with power conversion efficiency (PCE) of 20.25% and 23.31%, respectively. Besides, the unencapsulated device with reaction sites maintains more than 99% of the initial PCE after aging over 5100 h. This work opens a promising avenue to prepare impermeable layer for stable PSCs, ST-PSCs, tandem solar cells, and the related scale-up solar cells.

摘要

在制备半透明(ST)钙钛矿太阳能电池(PSC)和串联太阳能电池时,原子层沉积(ALD)被证明是用于溅射缓冲层的特别有吸引力的技术。当衬底与ALD反应物不发生反应时,ALD过程会转变为岛状生长,从而产生针孔层,这对抗溅射产生不利影响。在此,进行了以ALD SnO作为溅射缓冲层的p-i-n结构PSC的研究。p-i-n结构的PVK太阳能电池中常用的电子传输层(ETL)PCBM是一种不发生反应的衬底,它会阻止ALD SnO的逐层生长。通过引入反应位点来活化PCBM层,以形成不透水的ALD层。通过引入反应位点/ALD SnO作为溅射缓冲层,作者成功制备出功率转换效率(PCE)分别为20.25%和23.31%的ST-PSC和钙钛矿/硅(双面抛光)串联太阳能电池。此外,具有反应位点的未封装器件在老化超过5100小时后仍保持超过99%的初始PCE。这项工作为制备用于稳定PSC、ST-PSC、串联太阳能电池及相关放大规模太阳能电池的不透水层开辟了一条有前景的途径。

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