Li Keyang, Gao Shize, Li Mingxin, Li Junyi, Wu Lingyun, Yu Lu, Zhou Manxi, Sui Gang
State Key Laboratory of Organic-Inorganic Composites, College of Materials Science and Engineering, Beijing University of Chemical Technology, Beijing 100029, China.
Nanoscale. 2025 Jul 16;17(28):16560-16591. doi: 10.1039/d5nr01513h.
Solid state electrolytes (SSEs) offer superior safety profiles, enhanced electrochemical stability, and expanded electrochemical windows compared with their liquid counterparts. Currently, the commercialization of SSEs is facing severe challenges. This review provides an overview of the latest research on SSEs for lithium batteries, with a focus on wide temperature range operation, optimized interface functionality, inhibition of active component loss, and novel modification strategies such as flame retardant, self-healing, intelligent responsive, and environmentally friendly electrolytes. The application of techniques such as molecular design, polymerization, composite structures, single ion conductors, nano functional components, and special polymers can effectively enhance the performance of advanced SSEs. Future research focus in this field is discussed, including improving ion conductivity, maintaining strength and stability, exploring new material systems, and optimizing electrode interfaces, . Such research aims to provide strong support for high-performance solid-state batteries widely used in the fields of electronics, electric vehicles, and energy storage.
与液体电解质相比,固态电解质(SSEs)具有卓越的安全性能、增强的电化学稳定性和更宽的电化学窗口。目前,固态电解质的商业化面临严峻挑战。本文综述了用于锂电池的固态电解质的最新研究,重点关注宽温度范围运行、优化的界面功能、抑制活性成分损失以及新型改性策略,如阻燃、自修复、智能响应和环境友好型电解质。分子设计、聚合、复合结构、单离子导体、纳米功能组件和特殊聚合物等技术的应用可以有效提高先进固态电解质的性能。讨论了该领域未来的研究重点,包括提高离子电导率、保持强度和稳定性、探索新材料体系以及优化电极界面等。此类研究旨在为广泛应用于电子、电动汽车和储能领域的高性能固态电池提供有力支持。