Rational material design of chemically inert oxide anode coating layers for lithium metal and all-solid-state batteries

While many coating materials have been explored to address the compatibility issues between Li anodes and solid-state electrolytes, a fully tailored material has yet to be suggested. Herein, we systematically evaluated potential coating candidate material properties to establish effective guidelines for functional battery material discovery. By performing high-throughput screening with various methodologies, we identified promising coating candidates such as LiTbO 2 , and LiDyO 2 , which exhibit inhibition of Li dendrite growth, non-reactivity, lithiophilicity, and sufficient ionic conductivity. Additionally, instead of directly synthesizing the coating layer from commercialized binary precursors, we experimentally induced the coating layers LiTbO 2 and LiDyO 2 from the binaries within the cell and validated their potential as coatings. Our findings provide a systematic framework for discovering and developing new materials to enhance the performance, safety, and commercial viability of all solid-state batteries.

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Publication Details

Journal
Applied Surface Science Advances
Published
2025-09-01
DOI
https://doi.org/10.1016/j.apsadv.2025.100842
Primary Topic
Advancements in Battery Materials
Type
article
Field-Weighted Citation Impact
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article

Rational material design of chemically inert oxide anode coating layers for lithium metal and all-solid-state batteries

Hyunseok Ko, Han Uk Lee, Woongchan Kim, Sung Beom Cho et al.
1 links
Applied Surface Science Advances
Advancements in Battery Materials
article

Rational material design of chemically inert oxide anode coating layers for lithium metal and all-solid-state batteries

Hyunseok Ko, Han Uk Lee, Woongchan Kim, Sung Beom Cho, Jungwon Kang, Hyeon Woo Kim, Patrick Joohyun Kim, Dong Won Jeon, Wootaek Choi, Min Sung Kang
article en

Abstract

While many coating materials have been explored to address the compatibility issues between Li anodes and solid-state electrolytes, a fully tailored material has yet to be suggested. Herein, we systematically evaluated potential coating candidate material properties to establish effective guidelines for functional battery material discovery. By performing high-throughput screening with various methodologies, we identified promising coating candidates such as LiTbO 2 , and LiDyO 2 , which exhibit inhibition of Li dendrite growth, non-reactivity, lithiophilicity, and sufficient ionic conductivity. Additionally, instead of directly synthesizing the coating layer from commercialized binary precursors, we experimentally induced the coating layers LiTbO 2 and LiDyO 2 from the binaries within the cell and validated their potential as coatings. Our findings provide a systematic framework for discovering and developing new materials to enhance the performance, safety, and commercial viability of all solid-state batteries.

Applied Surface Science AdvancesVol. 29
Kyungpook National University (KR), Korea Institute of Ceramic Engineering and Technology (KR), Ajou University (KR)
Openalex Percentile: Top 77%
Advancements in Battery Materials
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