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Semitransparent organic solar cells based on all-low-bandgap donor and acceptor materials and their performance potential

带隙 材料科学 有机太阳能电池 光电子学 混合太阳能电池 接受者 工程物理 聚合物太阳能电池 太阳能电池 聚合物 凝聚态物理 物理 工程类 复合材料
作者
Tingting Jiang,Guichuan Zhang,Rongxin Xia,Jun Huang,Xue‐Lei Li,M. Wang,Hin‐Lap Yip,Yong Cao
出处
期刊:Materials Today Energy [Elsevier]
卷期号:21: 100807-100807 被引量:37
标识
DOI:10.1016/j.mtener.2021.100807
摘要

Recent advances in organic solar cells (OSCs) based on large-bandgap donors and low-bandgap non-fullerene acceptors (NFAs) have increased the power conversion efficiency (PCE) of OSCs to ~18%. However, these state-of-the-art OSCs have strong absorption in the visible region, limiting their application in semitransparent organic solar cells (STOSCs). In this study, an all-low-bandgap system based on a low-bandgap polymer donor (PM2) and a low-bandgap NFA (Y6-BO), was introduced as the light-harvesting layer for STOCSs with absorption mainly localized in the near-infrared (NIR) spectrum from 600 to 900 nm. The corresponding opaque OSCs exhibited the highest PCE among reported all-low-bandgap OSC systems, and the corresponding STOSCs showed higher visible light transmittances (VLTs) and light utilization efficiencies (LUEs) than the reference devices based on state-of-the-art PM6:Y6-BO OSC system with broad range absorption from visible to NIR. Optical simulations predicted that the PM2:Y6-BO-based STOSCs have a greater potential to realize higher VLTs and PCEs and better PCE retention (PCE semitransparent /PCE opaque ) than those from the PM6:Y6-BO-based STOSCs. Guided by these simulations, PM2-based STOSCs with VLTs exceeding 40% and PCEs of ~6% were achieved. Further recombination analysis suggested that the PM2-based devices experienced more severe charge recombination and energy losses, indicating there is further room for PCE improvement by designing new all-low-bandgap systems. Overall, this work shows the great potential of all-low-bandgap systems in realizing STOSCs with high PCEs and VLTs, which is promising for the commercialization of OSCs as power-generating window applications. • A highly efficient all-low-bandgap opaque OSC with a power conversion efficiency (PCE) of 11.1% was constructed. • The all-low-bandgap semitransparent OSCs showed higher light utilization efficiencies and better PCE retention. • A high-performance semitransparent OSC with a visible light transmittance of ~43% and a PCE of ~6% was realized.
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