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液态镓助力二次离子电池金属氟化物的通用复兴策略。

Universal Renaissance Strategy of Metal Fluoride in Secondary Ion Batteries Enabled by Liquid Metal Gallium.

机构信息

Department of Materials Science, Fudan University, Shanghai, 200433, China.

Key Laboratory for Neutron Physics of Chinese Academy of Engineering Physics, Institute of Nuclear Physics and Chemistry, Mianyang, 621999, China.

出版信息

Adv Mater. 2023 Jul;35(28):e2301442. doi: 10.1002/adma.202301442. Epub 2023 May 30.

DOI:10.1002/adma.202301442
PMID:37022981
Abstract

All-solid-state alkali ion batteries represent a future trend in battery technology, as well as provide an opportunity for low-cost metal fluoride electrode materials, if certain intrinsic problems can be resolved. In this work, a liquid metal activation strategy is proposed in which liquid Ga elements are generated in situ and doped into the LiF crystal structure by introducing a small amount of GaF . Benefiting from these two Ga states of existence, in which the liquid metal Ga can continuously maintain conformable ion/electron-transport networks, while doped Ga in the LiF crystal structure catalyzes LiF splitting, the lithium-ion storage capacity of MnF significantly increases by 87%. A similar effect can be obtained in FeF , where the sodium-ion storage capacity is enhanced by 33%. This universal strategy with few restrictions can be used to realize a complete renaissance of metal fluorides, as well as offer an opportunity for the new application of liquid metals in the field of energy storage.

摘要

全固态碱金属离子电池代表了电池技术的未来发展趋势,如果能够解决某些内在问题,它们也为低成本的金属氟化物电极材料提供了机会。在这项工作中,提出了一种液态金属激活策略,通过引入少量 GaF ,原位生成液态 Ga 元素并掺杂到 LiF 晶体结构中。得益于这两种 Ga 存在状态,液态 Ga 可以持续保持可变形的离子/电子传输网络,同时掺杂在 LiF 晶体结构中的 Ga 催化 LiF 键的断裂,使得 MnF 的锂离子存储容量显著提高了 87%。在 FeF 中也可以获得类似的效果,其钠离子存储容量提高了 33%。这种限制较少的通用策略可以实现金属氟化物的全面复兴,并为液态金属在储能领域的新应用提供机会。

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