Xia CaoHao JiaWu XuJi‐Guang Zhang
The conventional LiPF 6 /carbonate-based electrolytes have been widely used in graphite (Gr)-based lithium (Li) ion batteries (LIBs) for more than 30 years because a stable solid electrolyte interphase (SEI) layer forms on the graphite surface and enables its long-term cycling stability. However, few of these electrolytes are stable under the more stringent conditions needed with a Li metal anode (LMA) and other anodes, such as silicon (Si), which exhibit large volume changes during charge/discharge processes. Many different approaches have been developed lately to stabilize Li metal batteries (LMBs) and Si-based LIBs. From this aspect, localized high-concentration electrolytes (LHCEs) have unique advantages: not only are they stable in a wide electrochemical window, they can also form stable SEI layers on LMA and Si anode surfaces to enable their long-term cycling stability. The ultrathin SEI layer formed on a Gr anode can also improve the safety and high-rate operation of conventional LIBs. In this paper, we give a brief summary of our recent work on LHCEs, including their design principle and applications in both LMBs and LIBs. A perspective on the future development of LHCEs is also discussed.
Wenlong CaiYan DengZhiwen DengYe JiaZeheng LiXuemei ZhangChanghaoyue XuQiang ZhangYun ZhangQiang Zhang
Shuru ChenJianming ZhengDonghai MeiKee Sung HanMark EngelhardWengao ZhaoWu XuJun LiuJi‐Guang Zhang
Xiaodi RenShuru ChenHongkyung LeeDonghai MeiMark EngelhardSarah BurtonWengao ZhaoJianming ZhengQiuyan LiMichael S. DingMarshall A. SchroederJudith AlvaradoKang XuYing Shirley MengJun LiuJi‐Guang ZhangWu Xu
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