Charge-transfer states in photosynthesis and organic solar cells

J. Hustings, R. Bonné, Rob Cornelissen, F. Morini, R. Valcke, K. Vandewal, J. Manca
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引用次数: 2

Abstract

Light-induced charge-transfer mechanisms are at the heart of both photosynthesis and photovoltaics. The underlying photophysical mechanisms occurring within photosynthesis and organic photovoltaics in particular show striking similarities. However, they are studied by distinct research communities, often using different terminology. This contribution aims to provide an introductory review and comparison of the light-induced charge-transfer mechanisms occurring in natural photosynthesis and synthetic organic photovoltaics, with a particular focus on the role of so-called charge-transfer complexes characterized by an excited state in which there is charge-transfer from an electron-donating to an electron-accepting molecular entity. From light absorption to fully separated charges, it is important to understand how a charge-transfer complex is excited, forming a charge-transfer state, which can decay to the ground state or provide free charge carries in the case of photovoltaics, or radicals for photochemistry in photosynthetic complexes. Our motivation originates from an ambiguity in the interpretation of charge-transfer states. This review attempts to standardize terminology between both research fields with the general aim of initiating a cross-fertilization between the insights and methodologies of these two worlds regarding the role of charge-transfer complexes, inspiring the cross-disciplinary development of next-generation solar cells. Likewise, we hope to encourage photosynthesis researchers to collaborate with the photovoltaics field, thereby gaining further knowledge of the charge-transfer process in natural light-harvesting systems.
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光合作用和有机太阳能电池中的电荷转移状态
光诱导的电荷转移机制是光合作用和光伏的核心。光合作用和有机光伏中发生的潜在光物理机制尤其显示出惊人的相似性。然而,它们由不同的研究团体进行研究,通常使用不同的术语。该贡献旨在对天然光合作用和合成有机光伏中发生的光诱导电荷转移机制进行介绍性综述和比较,特别关注以激发态为特征的所谓电荷转移复合物的作用,在激发态中存在从给电子分子实体到接受电子分子实体的电荷转移。从光吸收到完全分离的电荷,重要的是要了解电荷转移复合物是如何被激发的,形成电荷转移态,电荷转移态可以衰变为基态,或者在光伏的情况下提供自由电荷载体,或者在光合复合物中用于光化学的自由基。我们的动机源于电荷转移态解释中的歧义。这篇综述试图使这两个研究领域之间的术语标准化,总的目的是在这两个世界关于电荷转移复合物作用的见解和方法之间展开交叉融合,激发下一代太阳能电池的跨学科发展。同样,我们希望鼓励光合作用研究人员与光伏领域合作,从而进一步了解自然光采集系统中的电荷转移过程。
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