超级电容器
电解质
离子液体
材料科学
纳米技术
离子电导率
冰点
溶剂化
电导率
化学工程
离子
电化学
化学
热力学
电极
物理
有机化学
物理化学
工程类
催化作用
作者
Shuqin Lan,Chang Yu,Jinhe Yu,Xiubo Zhang,Yingbin Liu,Yuanyang Xie,Jianjian Wang,Jieshan Qiu
出处
期刊:Small
[Wiley]
日期:2024-03-07
被引量:21
标识
DOI:10.1002/smll.202309286
摘要
Abstract As one of the key components of supercapacitors, electrolyte is intensively investigated to promote the fast development of the energy supply system under extremely cold conditions. However, high freezing point and sluggish ion transport kinetics for routine electrolytes hinder the application of supercapacitors at low temperatures. Resultantly, the liquid electrolyte should be oriented to reduce the freezing point, accompanied by other superior characteristics, such as large ionic conductivity, low viscosity and outstanding chemical stability. In this review, the intrinsically physical parameters and microscopic structure of low‐temperature electrolytes are discussed thoroughly, then the previously reported strategies that are used to address the associated issues are summarized subsequently from the aspects of aqueous and non‐aqueous electrolytes (organic electrolyte and ionic liquid electrolyte). In addition, some advanced spectroscopy techniques and theoretical simulation to better decouple the solvation structure of electrolytes and reveal the link between the key physical parameters and microscopic structure are briefly presented. Finally, the further improvement direction is put forward to provide a reference and guidance for the follow‐up research.
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