The Exploration of Li <sup>+</sup> Transfer Kinetics Mechanism under the Dielectric Effect in Lithium Metal Anode: Unilateral and Bilateral Electrode Protection

Artificial protection layers (APLs) are an effective strategy to protect lithium metal anodes. Current research primarily focuses on applying APLs to the electrode surface where lithium deposition occurs. However, limited attention has been given to how adding APLs to the counter electrode surface impacts the performance of lithium metal batteries. In this study, we combine experimental and simulation approaches to investigate the effects of applying APLs either solely on the lithium deposition side or on both electrodes of the battery. Experimental results show that Li-LFP batteries cycled at 2 C without APLs exhibited a capacity retention below 80% after 245 cycles. When APLs were applied only to the lithium deposition side, the batteries could cycle for 464 cycles. Remarkably, when APLs were applied to both electrodes, the Li-LFP batteries retained over 80% capacity retention even after 800 cycles. These findings indicate that applying APLs to both the lithium deposition side and the counter electrode significantly enhances the electrochemical performance of the battery. This study breaks the current paradigm of focusing solely on the lithium metal electrode surface, providing valuable insights for the development of safer and higher-performance lithium metal anode battery systems in the future.

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Publication Details

Journal
ACS Applied Materials & Interfaces
Published
2026-03-26
DOI
https://doi.org/10.1021/acsami.5c25403
Primary Topic
Advanced Battery Materials and Technologies
Type
article
Field-Weighted Citation Impact
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article

The Exploration of Li + Transfer Kinetics Mechanism under the Dielectric Effect in Lithium Metal Anode: Unilateral and Bilateral Electrode Protection

Kanghou Ma, Fangshuo Zhou, Chenyu Wang, Zhiguo Liu et al.
ACS Applied Materials & Interfaces
Advanced Battery Materials and Technologies
article

The Exploration of Li + Transfer Kinetics Mechanism under the Dielectric Effect in Lithium Metal Anode: Unilateral and Bilateral Electrode Protection

Kanghou Ma, Fangshuo Zhou, Chenyu Wang, Zhiguo Liu, Guihua Liu, Yitao He, Caiyue Sun, Ge Zhang, Ningning Wu, Yaohui Zhang
article en

Abstract

Artificial protection layers (APLs) are an effective strategy to protect lithium metal anodes. Current research primarily focuses on applying APLs to the electrode surface where lithium deposition occurs. However, limited attention has been given to how adding APLs to the counter electrode surface impacts the performance of lithium metal batteries. In this study, we combine experimental and simulation approaches to investigate the effects of applying APLs either solely on the lithium deposition side or on both electrodes of the battery. Experimental results show that Li-LFP batteries cycled at 2 C without APLs exhibited a capacity retention below 80% after 245 cycles. When APLs were applied only to the lithium deposition side, the batteries could cycle for 464 cycles. Remarkably, when APLs were applied to both electrodes, the Li-LFP batteries retained over 80% capacity retention even after 800 cycles. These findings indicate that applying APLs to both the lithium deposition side and the counter electrode significantly enhances the electrochemical performance of the battery. This study breaks the current paradigm of focusing solely on the lithium metal electrode surface, providing valuable insights for the development of safer and higher-performance lithium metal anode battery systems in the future.

ACS Applied Materials & Interfaces
Hebei University of Technology (CN), Harbin Institute of Technology (CN), Anhui University of Technology (CN)
Openalex Percentile: Top 7%
Advanced Battery Materials and Technologies
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The Exploration of Li <sup>+</sup> Transfer Kinetics Mechanism under the Dielectric Effect in Lithium Metal Anode: Unilateral and Bilateral Electrode Protection — Kanghou Ma, Fangshuo Zhou, et al. · ACS Applied Materials & Interfaces (2026) | TGRS Research Map | TGRS