有机太阳能电池
富勒烯
背景(考古学)
纳米技术
材料科学
太阳能电池
重要事件
光伏系统
可制造性设计
透视图(图形)
有机半导体
工程物理
生化工程
计算机科学
化学
有机化学
机械工程
聚合物
工程类
光电子学
电气工程
人工智能
古生物学
复合材料
考古
历史
生物
作者
Ardalan Armin,Wei Li,Oskar J. Sandberg,Zuo Xiao,Liming Ding,Jenny Nelson,Dieter Neher,Koen Vandewal,Safa Shoaee,Tao Wang,Harald Ade,Thomas Heumüller,Christoph J. Brabec,Paul Meredith
标识
DOI:10.1002/aenm.202003570
摘要
Abstract Organic solar cells are composed of electron donating and accepting organic semiconductors. Whilst a significant palette of donors has been developed over three decades, until recently only a small number of acceptors have proven capable of delivering high power conversion efficiencies. In particular the fullerenes have dominated the landscape. In this perspective, the emergence of a family of materials–the non‐fullerene acceptors (NFAs) is described. These have delivered a discontinuous advance in cell efficiencies, with the significant milestone of 20% now in sight. Intensive international efforts in synthetic chemistry have established clear design rules for molecular engineering enabling an ever‐expanding number of high efficiency candidates. However, these materials challenge the accepted wisdom of how organic solar cells work and force new thinking in areas such as morphology, charge generation and recombination. This perspective provides a historical context for the development of NFAs, and also addresses current thinking in these areas plus considers important manufacturability criteria. There is no doubt that the NFAs have propelled organic solar cell technology to the efficiencies necessary for a viable commercial technology–but how far can they be pushed, and will they also deliver on equally important metrics such as stability?
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