Round‐robin test of all‐solid‐state battery with sulfide electrolyte assembly in coin‐type cell configuration

IF 2.9 Q2 ELECTROCHEMISTRY Electrochemical science advances Pub Date : 2024-03-29 DOI:10.1002/elsa.202400004
Alexander Beutl, A. Orue, P. López-Aranguren, Andrea Itziar Pitillas Martinez, Maria Helena Braga, Ville Kekkonen, Artur Tron
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Abstract

The replacement of conventional lithium‐ion batteries with solid‐state batteries is currently under investigation by many players both from academia and industry. Sulfide‐based electrolytes are among the materials that are regarded as most promising, especially for application in the transport sector. The performance of anode, cathode, and solid electrolyte materials of this type of solid electrolyte is typically evaluated using manually assembled cells such as Swagelok cells, EL‐CELLs, and in‐house built pressure devices. Coin cells, however, are often disregarded. Though coin cells cannot accurately predict how a material will perform in an end‐use application battery cell format, they are easy to assemble and can provide reproducible data compared to the other cell types, which make them an interesting option for testing the materials under conditions more relevant for their envisioned application. The coin cell preparation method presented in this work has been evaluated interlaboratory for reproducibility and, in addition, can be modified depending on the optimization parameters of the solid electrolyte, cathode material, bilayer comprised on cathode and solid electrolyte, lithium metal anode, and cell in general. Besides, an interlab round‐robin test (RRT) is carried out between four laboratories, measuring defined electrochemical tests of sulfide solid‐state batteries in coin cell configuration. This RRT for the preparation of coin cell solid‐state batteries with sulfide solid electrolyte, lithium nickel manganese cobalt oxides cathode, and lithium metal anode is intended for academic researchers and provides guidelines of research in this field.
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硬币型电池配置的硫化物电解质全固态电池组件循环测试
目前,学术界和工业界的许多参与者都在研究用固态电池取代传统锂离子电池。硫化物电解质是被认为最有前途的材料之一,尤其是在交通领域的应用。这类固态电解质的阳极、阴极和固态电解质材料的性能通常通过手工组装的电池(如世伟洛克电池、EL-CELL 和内部制造的压力装置)进行评估。然而,纽扣电池往往被忽视。虽然纽扣电池不能准确预测材料在最终应用电池中的性能,但与其他电池类型相比,它们易于组装,并能提供可重复的数据,这使它们成为在与其设想的应用更相关的条件下测试材料的有趣选择。这项工作中介绍的纽扣电池制备方法已在实验室间进行了可重复性评估,此外,还可根据固体电解质、阴极材料、阴极和固体电解质上的双电层、锂金属阳极以及整个电池的优化参数进行修改。此外,四个实验室之间还进行了实验室间循环测试(RRT),测量纽扣电池配置中硫化物固态电池的规定电化学测试。该 RRT 用于制备使用硫化物固体电解质、锂镍锰钴氧化物正极和锂金属负极的纽扣电池,旨在为学术研究人员提供该领域的研究指南。
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CiteScore
3.80
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0.00%
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审稿时长
10 weeks
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