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Simultaneous Suppression of the Dendrite Formation and Shuttle Effect in a Lithium-Sulfur Battery by Bilateral Solid Electrolyte Interface.


ABSTRACT: Although the reversible and inexpensive energy storage characteristics of the lithium-sulfur (Li-S) battery have made it a promising candidate for electrical energy storage, the dendrite growth (anode) and shuttle effect (cathode) hinder its practical application. Here, it is shown that new electrolytes for Li-S batteries promote the simultaneous formation of bilateral solid electrolyte interfaces on the sulfur-host cathode and lithium anode, thus effectively suppressing the shuttle effect and dendrite growth. These high-capacity Li-S batteries with new electrolytes exhibit a long-term cycling stability, ultrafast-charge/slow-discharge rates, super-low self-discharge performance, and a capacity retention of 94.9% even after a 130 d long storage. Importantly, the long cycle stability of these industrial grade high-capacity Li-S pouch cells with new electrolytes will provide the basis for creating robust energy dense Li-S batteries with an extensive life cycle.

SUBMITTER: Fan L 

PROVIDER: S-EPMC6145423 | biostudies-literature | 2018 Sep

REPOSITORIES: biostudies-literature

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Simultaneous Suppression of the Dendrite Formation and Shuttle Effect in a Lithium-Sulfur Battery by Bilateral Solid Electrolyte Interface.

Fan Ling L   Chen Suhua S   Zhu Jingyi J   Ma Ruifang R   Li Shuping S   Podila Ramakrishna R   Rao Apparao M AM   Yang Gongzheng G   Wang Chengxin C   Liu Qian Q   Xu Zhi Z   Yuan Lixia L   Huang Yunhui Y   Lu Bingan B  

Advanced science (Weinheim, Baden-Wurttemberg, Germany) 20180723 9


Although the reversible and inexpensive energy storage characteristics of the lithium-sulfur (Li-S) battery have made it a promising candidate for electrical energy storage, the dendrite growth (anode) and shuttle effect (cathode) hinder its practical application. Here, it is shown that new electrolytes for Li-S batteries promote the simultaneous formation of bilateral solid electrolyte interfaces on the sulfur-host cathode and lithium anode, thus effectively suppressing the shuttle effect and d  ...[more]

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