Advances and challenges in inorganic lithium solid electrolytes

Zhong Zheng , Hong Zhao , Ruth Knibbe , Masashi Kotobuki , Xiaoyi Zhu , Li Lu , Lixian Sun , Zongwen Liu
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Abstract

Lithium-ion battery (LIB) is the most widely used secondary battery and has been extensively studied in the past few decades due to its many advantages compared to other secondary batteries, such as higher energy density and better cycling performance. Considering the potential risks of environmental pollution and fire hazard induced by leakage or overheating of conventional electrolytes composed of flammable organic solvent-dissolving Li salts, non-flammable solid electrolytes (SEs), especially ceramic electrolytes with different structural types have been developed to improve the safety performance of LIBs. As the properties of SEs significantly depend on the microstructure, this review systemically summarized the recent progress in inorganic solid electrolytes based on the classification of microstructure and presented the relevant discussion in detail, including the microstructures, the mechanisms of Li ionic migration and performance optimization. Additionally, several challenges for realizing industrial application of SEs, such as lower ionic conductivities compared to liquid electrolytes and unsatisfactory stability in ambient atmosphere were mentioned. To effectively boost the development of SEs, more advanced transmission electron microscopy and atom probe tomography should be considered to deeply investigate the relationship between microstructure and properties in the future.

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无机锂固体电解质的进展与挑战
锂离子电池(Lithium-ion battery,LIB)是应用最广泛的二次电池,与其他二次电池相比,LIB 具有能量密度更高、循环性能更好等诸多优势,因此在过去几十年中得到了广泛的研究。考虑到由可燃有机溶剂溶解锂盐组成的传统电解质存在泄漏或过热引起环境污染和火灾的潜在风险,人们开发了不可燃固体电解质(SE),特别是具有不同结构类型的陶瓷电解质,以提高 LIB 的安全性能。由于固体电解质的性能很大程度上取决于其微观结构,本综述根据微观结构的分类,系统地总结了无机固体电解质的最新进展,并详细介绍了相关讨论,包括微观结构、锂离子迁移机制和性能优化。此外,还提到了实现无机固态电解质工业应用所面临的几个挑战,如与液态电解质相比离子电导率较低、在环境气氛中的稳定性不理想等。为有效促进 SEs 的发展,未来应考虑采用更先进的透射电子显微镜和原子探针断层扫描技术来深入研究微观结构与性能之间的关系。
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