Boosting the performance of ternary solar cells by fine-tuning the distribution of the third component

三元运算 组分(热力学) Boosting(机器学习) 材料科学 分布(数学) 工艺工程 环境科学 计算机科学 热力学 工程类 数学 物理 人工智能 数学分析 程序设计语言
作者
Yan Zhang,Jing Peng,Zemin He,Yutong Zhang,Xingpeng Liu,Zhenhui Xu,Chunpeng Song,Xipeng Yin,Junzheng Yan,Qiuju Liang,Jiangang Liu
出处
期刊:Chemical Engineering Journal [Elsevier BV]
卷期号:512: 162693-162693 被引量:8
标识
DOI:10.1016/j.cej.2025.162693
摘要

• The localized deposition strategy dramatically enhances the energy transfer efficiency, increasing it from 38.26 % to 66.52 %. • For the first time, we have achieved quantitative analysis of the third component’s distribution in both lateral and vertical directions. • By employing the localized deposition strategy, we significantly improved the PCE to 18.69 % in PM6:PY-DT-based OSCs . Ternary organic solar cells (T-OSCs) utilizing energy transfer can enhance light absorption efficiency, thereby significantly improving power conversion efficiency (PCE). However, the uncontrollable distribution of the third component results in low energy transfer efficiency ( E FRET ). To address this, we proposed a localized deposition strategy for establishing a bulk heterojunction with a controlled distribution of the third component, denote as CD-HJ, wherein the energy donor is embedded within the energy acceptor phase. Meanwhile, for the very first time, we have combined experimental characterization with simulation and image processing to achieve a groundbreaking quantitative analysis of the third component distribution. Taking for PM6:PY-DT:IBC-F blend for instance, the device based on CD-HJ structure increases the proportion of IBC-F within the PM6 phase from 28.1 % to 80.6 % compared to the device based on BHJ. The optimized distribution of IBC-F boosted the E FRET from 38.26 % to 66.52 %. Consequently, the device based on CD-HJ structure achieved a PCE of 18.69 %.
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