Amorphous conjugated polymer networks as an emerging class of polymer nanostructures

Yuya Oaki and Kosuke Sato
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Abstract

The organizational states of functional monomer molecules have a significant impact on the properties of polymer materials. This Perspective summarizes amorphous conjugated polymer networks (CPNs) as a new family of polymerized structures. CPNs have been studied since the 1990s. The number of papers about CPNs increased in the 2010s after the earlier work was summarized in a review in 2005. However, the amorphous types had not attracted much attention in previous articles. Amorphous CPNs have potential structural advantages compared with conventional crystalline polymers and framework materials. Diverse combinations of monomers and linkers are used to synthesize amorphous CPNs. Conjugated monomers as functional units are not densely aggregated but are homogeneously dispersed in the network. The amorphous network contributes to structural flexibility for molecular motion related to dynamic properties. The low-crystalline nature affords control over the nanoscale morphology. This Perspective starts with a brief summary of polymerized structures. Our recent work is introduced to show the structures and properties of amorphous CPNs. Simultaneous and random copolymerization of multiple conjugated monomers provides amorphous CPNs. Enhanced electrochemical performance in energy-related applications was extracted from the resultant amorphous CPNs containing redox-active moieties, thanks to their structural characteristics. These results imply that a variety of advanced functional materials can be developed based on the concept of amorphous CPNs.

Abstract Image

非晶共轭聚合物网络是一类新兴的聚合物纳米结构
功能单体分子的组织状态对高分子材料的性能有重要影响。本展望概述了非晶共轭聚合物网络(CPNs)作为一种新的聚合结构家族。自20世纪90年代以来,人们一直在研究cpn。在2005年的一篇综述中总结了早期的工作后,关于cpn的论文数量在2010年代有所增加。然而,在以前的文章中,无定形类型并没有引起太多的关注。与传统的晶体聚合物和框架材料相比,非晶态CPNs具有潜在的结构优势。不同的单体和连接体组合被用来合成非晶cpn。作为功能单元的共轭单体不是密集聚集的,而是均匀分散在网络中。非晶态网络有助于分子动态运动的结构柔韧性。低晶性提供了对纳米级形貌的控制。本展望从聚合结构的简要总结开始。我们最近的工作是介绍非晶CPNs的结构和性质。同时和随机共聚多个共轭单体提供无定形的cpn。由于其结构特性,所得到的含有氧化还原活性部分的非晶态cpn在能源相关应用中的电化学性能得到了增强。这些结果表明,基于非晶CPNs的概念可以开发出各种先进的功能材料。
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