Recent advances in open-shell mixed conductors—From molecular radicals to polymers

IF 6.1 Q2 CHEMISTRY, PHYSICAL Chemical physics reviews Pub Date : 2023-12-01 DOI:10.1063/5.0163747
J. Ko, Quynh H. Nguyen, Quyen Vu Thi, Y. Joo
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Abstract

Mixed conductors have recently garnered attention in the chemical physicist community due to their distinctive conducting nature and numerous potential applications. These species transport charges via both ionic and electronic pathways, where the coupling between these pathways facilitates an alternative mode of charge transport. Among the various mixed conductors examined, stable open-shell organic compounds are emerging as a promising class of materials. They have the potential to supplant existing organic mixed conductors thanks to their superior conductivity, ease of processing, environmental stability, and functional adaptability. Notably, recent advancements in open-shell macromolecules have been remarkable, ranging from their unprecedented solid-state electrical conductivity to their versatile roles in electrochemistry. Similarly, recent strides in small molecular open-shell species deserve attention. The solid-state electronic properties of these small molecular radicals can be compared to those of macromolecular (non-)conjugated organics materials, and they also play a significant role in wet (electrolyte-based) chemistry. In this review article, we offer a comprehensive overview of open-shell organic compounds, encompassing both small and macromolecular radicals. We particularly emphasize their role as a mixed conductor in various applications, the unique context of each species, and the interconnections between them.
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开壳混合导体的最新进展--从分子自由基到聚合物
混合导体因其独特的导电性能和众多潜在应用,最近引起了化学物理学家的关注。这些物质通过离子和电子途径传输电荷,这些途径之间的耦合促进了电荷传输的另一种模式。在已研究过的各种混合导体中,稳定的开壳有机化合物正在成为一类前景广阔的材料。它们具有卓越的导电性、易加工性、环境稳定性和功能适应性,有望取代现有的有机混合导体。值得注意的是,开壳大分子最近取得了令人瞩目的进展,从其前所未有的固态导电性到其在电化学中的多功能作用,不一而足。同样,小分子开壳物种的最新进展也值得关注。这些小分子自由基的固态电子特性可与大分子(非)共轭有机材料相媲美,它们在湿化学(基于电解质的)中也发挥着重要作用。在这篇综述文章中,我们全面概述了开壳有机化合物,包括小分子和大分子自由基。我们特别强调了它们在各种应用中作为混合导体的作用、每个物种的独特背景以及它们之间的相互联系。
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