Solvation Modification and Interfacial Chemistry Regulation Via Amphoteric Amino Acids for Long‐Cycle Zinc Batteries

Abstract To address the issues of dendrite growth and zinc corrosion in rechargeable zinc‐air batteries, multifunctional glycine/valine additives are introduced into the electrolyte. By regulating the solvation shell structure and enhancing interfacial stability, these additives aim to protect the reversibility and stability of the zinc anode. Glycine/valine molecules inhibit the formation of the [Zn(H 2 O) 6 ] 2+ and Zn 5 (OH) 8 (OAc) 2 ·2H 2 O by‐products at the interface by replacing active water molecules in a strong alkaline environment. Additionally, they form a hydrophobic electric double layer on the zinc metal surface, during the charge/discharge process, and construct an in situ solid electrolyte interface layer. This further suppresses the hydrogen evolution reaction and dendrite growth. The superior long‐term cycling stability of Zn||Zn cells, Zn||Cu, and zinc‐air full cells demonstrates the effectiveness of glycine/valine additives.

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Publication Details

Journal
Advanced Energy Materials
Published
2024-10-03
DOI
https://doi.org/10.1002/aenm.202402123
Citations
37
Primary Topic
Advanced battery technologies research
Type
article
Field-Weighted Citation Impact
7.72

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article

Solvation Modification and Interfacial Chemistry Regulation Via Amphoteric Amino Acids for Long‐Cycle Zinc Batteries

Pucheng Pei, Keliang Wang, Bin Liang, Manhui Wei et al.
37 citations
Advanced Energy Materials
Advanced battery technologies research
7.72
article

Solvation Modification and Interfacial Chemistry Regulation Via Amphoteric Amino Acids for Long‐Cycle Zinc Batteries

Pucheng Pei, Keliang Wang, Bin Liang, Manhui Wei, Hengwei Wang, Daiyuan Zhong, Jianyin Xiong
article en
37 citations

Abstract

Abstract To address the issues of dendrite growth and zinc corrosion in rechargeable zinc‐air batteries, multifunctional glycine/valine additives are introduced into the electrolyte. By regulating the solvation shell structure and enhancing interfacial stability, these additives aim to protect the reversibility and stability of the zinc anode. Glycine/valine molecules inhibit the formation of the [Zn(H 2 O) 6 ] 2+ and Zn 5 (OH) 8 (OAc) 2 ·2H 2 O by‐products at the interface by replacing active water molecules in a strong alkaline environment. Additionally, they form a hydrophobic electric double layer on the zinc metal surface, during the charge/discharge process, and construct an in situ solid electrolyte interface layer. This further suppresses the hydrogen evolution reaction and dendrite growth. The superior long‐term cycling stability of Zn||Zn cells, Zn||Cu, and zinc‐air full cells demonstrates the effectiveness of glycine/valine additives.

Advanced Energy MaterialsVol. 14(46)
Beijing Institute of Technology (CN), Wuhan Polytechnic University (CN), Tsinghua University (CN)
National Natural Science Foundation of China, National Key Research and Development Program of China
Clean water and sanitation
Openalex Percentile: Top 2%
Advanced battery technologies research
7.72
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