Functionalized Organic/Polymeric Materials for Perovskite and Organic Solar Cells

IF 14.1 Q1 CHEMISTRY, MULTIDISCIPLINARY
Accounts of materials research Pub Date : 2026-06-26 Epub Date: 2026-04-17 DOI:10.1021/accountsmr.5c00344
Haiyang Chen, Yege Jing, Juan Zhu, Yaowen Li
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引用次数: 0

Abstract

Perovskite solar cells (pero-SCs) and organic solar cells (OSCs), owing to their solution processability, lightweight form factors, and exceptional mechanical flexibility, have emerged as leading contenders to complement silicon photovoltaics in distributed energy systems. In recent years, rapid progress has pushed the power conversion efficiencies of rigid laboratory-scale pero-SCs beyond 27% and OSCs above 21%. Yet, translating these achievements into practical deployment requires simultaneous advances in flexibility, large-area manufacturability, and long-term operational stability. The chemically programmable nature of organic and polymeric materials provides a powerful platform for addressing these challenges. Their tunable molecular structures enable the rational design of functional motifs tailored to the specific needs of different thin-film layers, offering “function-on-demand” capabilities. Such functionalized materials can be engineered to serve as key components in printed flexible transparent electrodes, charge-transport layers, and active layers. By introducing well-defined redox-active units, dynamically cross-linkable groups, self-assembling cores, and moieties that modulate solution viscosity and aggregation behavior, researchers can simultaneously improve mechanical robustness, film uniformity, interfacial energetics, and environmental stability. In this Account, we highlight recent advances in achieving stable, flexible, and large-area pero-SCs and OSCs through use of functionalized organic and polymeric materials, with emphasis on key contributions from our group. We summarize the underlying design principles, elucidate structure–property–performance correlations in representative material systems, and illustrate how functionally tailored molecules can bridge the gap between molecular-level design and device-level performance. Finally, we offer our perspective on remaining challenges and future research directions toward practical implementation of flexible and scalable perovskite and organic photovoltaics.

Abstract Image

Abstract Image

钙钛矿和有机太阳能电池的功能化有机/聚合物材料
钙钛矿太阳能电池(pero-SCs)和有机太阳能电池(OSCs)由于其溶液可加工性、轻量化外形和卓越的机械灵活性,已成为分布式能源系统中硅光伏电池的主要竞争者。近年来,快速发展推动了实验室规模的pero-SCs的功率转换效率超过27%,osc的功率转换效率超过21%。然而,要将这些成果转化为实际部署,需要同时提高灵活性、大面积可制造性和长期运行稳定性。有机和聚合物材料的化学可编程特性为解决这些挑战提供了一个强大的平台。其可调节的分子结构使功能基元的合理设计适合不同薄膜层的特定需求,提供“按需功能”的能力。这种功能化材料可以作为印刷柔性透明电极、电荷传输层和活性层的关键部件。通过引入定义明确的氧化还原活性单元、动态交联基团、自组装核心以及调节溶液粘度和聚集行为的部分,研究人员可以同时提高机械稳健性、膜均匀性、界面能量学和环境稳定性。在本报告中,我们重点介绍了通过使用功能化有机和聚合物材料在实现稳定、灵活和大面积的pero-SCs和osc方面的最新进展,重点介绍了我们团队的主要贡献。我们总结了潜在的设计原则,阐明了代表性材料系统中结构-性能-性能的相关性,并说明了功能定制分子如何弥合分子级设计与设备级性能之间的差距。最后,我们对柔性和可扩展的钙钛矿和有机光伏的实际实施提出了我们对剩余挑战和未来研究方向的看法。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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CiteScore
17.70
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