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Prioritized Na+ Adsorption-Driven Cationic Electrostatic Repulsion Enables Highly Reversible Zinc Anodes at Low Temperatures

Authors: Guanchong Mao; Pan Xu; Xin Liu; Xingyu Zhao; Zexiang Shen; Dongliang Chao; Minghua Chen

DOI: 10.1007/s40820-025-01889-9Status: Verified Translated Edition
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Key Findings in This Report

• Introduction of low-cost Na+ into Zn(ClO4)2 electrolyte suppresses Zn2+ aggregation via preferential adsorption and electrostatic repulsion, enabling homogeneous Zn deposition and enhanced low-temperature reversibility. • Na+ with low ionic potential spontaneously adsorbs at the anode–electrolyte interface, reducing solvated water molecules and suppressing parasitic reactions, significantly improving Coulombic efficiency at low temperatures. • At −40 °C, Zn||Zn cells maintained stable cycling for over 2500 h, and Zn||PANI full cells exhibited over 8000 cycles with >90% capacity retention. • The organic-free antifreeze electrolyte offers a cost-effective and practical strategy for long-term operational stability of aqueous zinc metal batteries in subzero environments.