锌
水溶液
背景(考古学)
纳米技术
阳极
可扩展性
离子
材料科学
计算机科学
工艺工程
冶金
化学
工程类
有机化学
电极
物理化学
古生物学
数据库
生物
作者
Dongshu Liu,Xilian Xu,Shibo Meng,Jun Li,Jinxiu Feng,Yuchao Chen,Wenxian Liu,Fangfang Wu,Wenhui Shi,Xiehong Cao
标识
DOI:10.1002/batt.202400071
摘要
Abstract The pursuit of alternative anode materials featuring inexpensive, efficient, and adaptable is shaping the future of rechargeable zinc‐ion batteries. The Zn powder anodes stand out among contenders due to their cost‐effectiveness, exceptional processability, and adjustability. However, their widespread use is hampered by significant challenges, including volume expansion and dendrite growth. To counter these issues, a gamut of optimization strategies for Zn powder anodes has been explored and developed. This review systematically encapsulates these research findings, offering a comprehensive understanding of various enhancement methods, such as three‐dimensional printing, in‐situ surface engineering, scalable electrostatic self‐assembly, and epoxy oligomer binding. These methodologies are discussed in detail in the context of their unique synthesis methods and underlying mechanisms. The paper concludes by outlining prospective research trajectories aimed at further optimizing the use of Zn powder anodes in aqueous zinc‐ion batteries, thereby illuminating potential avenues for future exploration and development.
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