Solvation Reconfiguration and Controllable Zn(101) Deposition Enable Stable Zn Anodes

Abstract Deposition of Zn 2+ along the (002) crystal plane often leads to uneven deposition and dendrites, which increases the risk of short circuits and shortens battery lifespan. To address these challenges, a double‐network hydrogel electrolyte (denoted as PASH) is designed, which enables the preferential deposition of Zn 2+ along the (101) crystal plane through modulating its solvation structure and interfacial chemistry. The ‐COO − groups in PASH form coordination bonds with Zn 2+ , reconstructing the solvation structure and lowering the desolvation energy barrier, thereby promoting oriented Zn deposition and facilitating fast ion transport. By steering Zn 2+ deposition toward the (101) crystal plane, the PASH hydrogel electrolyte ensures uniform and compact plating, significantly enhancing the cycling stability and Coulombic efficiency. Therefore, the Zn||Zn symmetric cells achieved an ultra‐long stable cycling life of 8000 h, and both asymmetric cells and full cells exhibited high Coulombic efficiency.

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Publication Details

Journal
Advanced Functional Materials
Published
2025-11-28
DOI
https://doi.org/10.1002/adfm.202524576
Primary Topic
Advanced battery technologies research
Type
article
Field-Weighted Citation Impact
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article

Solvation Reconfiguration and Controllable Zn(101) Deposition Enable Stable Zn Anodes

Advanced Functional Materials
Advanced battery technologies research
article

Solvation Reconfiguration and Controllable Zn(101) Deposition Enable Stable Zn Anodes

article en

Abstract

Abstract Deposition of Zn 2+ along the (002) crystal plane often leads to uneven deposition and dendrites, which increases the risk of short circuits and shortens battery lifespan. To address these challenges, a double‐network hydrogel electrolyte (denoted as PASH) is designed, which enables the preferential deposition of Zn 2+ along the (101) crystal plane through modulating its solvation structure and interfacial chemistry. The ‐COO − groups in PASH form coordination bonds with Zn 2+ , reconstructing the solvation structure and lowering the desolvation energy barrier, thereby promoting oriented Zn deposition and facilitating fast ion transport. By steering Zn 2+ deposition toward the (101) crystal plane, the PASH hydrogel electrolyte ensures uniform and compact plating, significantly enhancing the cycling stability and Coulombic efficiency. Therefore, the Zn||Zn symmetric cells achieved an ultra‐long stable cycling life of 8000 h, and both asymmetric cells and full cells exhibited high Coulombic efficiency.

Advanced Functional Materials
Qingdao University of Science and Technology (CN)
Openalex Percentile: Top 47%
Advanced battery technologies research
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