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通过阴离子交换实现氧化还原活性二维双(三联吡啶)钴(II)纳米片在电容器与导体之间的调制。

Modulation between capacitor and conductor for a redox-active 2D bis(terpyridine)cobalt(II) nanosheet via anion-exchange.

作者信息

Takada Kenji, Ito Miyu, Fukui Naoya, Nishihara Hiroshi

机构信息

Research Institute for Science and Technology, Tokyo University of Science, 2641, Yamazaki, Noda, Chiba, 278-8510, Japan.

Faculty of Science and Technology, Tokyo University of Science, 2641, Yamazaki, Noda, Chiba, 278-8510, Japan.

出版信息

Commun Chem. 2024 Aug 22;7(1):186. doi: 10.1038/s42004-024-01274-4.

Abstract

Ionic polymers are intriguing materials whose functionality arises from the synergy between ionic polymer backbones and counterions. A key method for enhancing their functionality is the post-synthetic ion-exchange reaction, which is instrumental in improving the chemical and physical properties of polymer backbones and introducing of the functionalities of the counterions. Electronic interaction between host polymer backbone and guest ions plays pivotal roles in property modulation. The current study highlights the modulation of responses to external electric field in cationic bis(terpyridine)cobalt(II) polymer nanofilms through anion-exchange reactions. Initially, as-prepared chloride-containing polymers exhibited supercapacitor behaviour. Introducing anionic metalladithiolenes into the polymers altered the behaviour to either conductive or insulative, depending on the valence of the metalladithiolenes. This modulation was accomplished by fine tuning of charge-transfer interactions between the bis(terpyridine)cobalt(II) complex moieties and redox-active anions. Our findings open up new avenue for ionic polymers, showcasing their potential as versatile platform in materials science.

摘要

离子聚合物是一种引人入胜的材料,其功能源于离子聚合物主链和抗衡离子之间的协同作用。增强其功能的一种关键方法是合成后离子交换反应,这有助于改善聚合物主链的化学和物理性质,并引入抗衡离子的功能。主体聚合物主链与客体离子之间的电子相互作用在性能调节中起着关键作用。当前的研究突出了通过阴离子交换反应对阳离子双(三联吡啶)钴(II)聚合物纳米薄膜中外部电场响应的调节。最初,制备的含氯聚合物表现出超级电容器行为。将阴离子金属二硫纶引入聚合物中,根据金属二硫纶的化合价,行为会改变为导电或绝缘。这种调节是通过微调双(三联吡啶)钴(II)络合物部分与氧化还原活性阴离子之间的电荷转移相互作用来实现的。我们的发现为离子聚合物开辟了新途径,展示了它们作为材料科学中通用平台的潜力。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/a72b/11341730/df11fa40daae/42004_2024_1274_Fig1_HTML.jpg

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