Fabrication of cathode composite Co3O4/CC and study on electrochemical properties of zinc cobalt battery

材料科学 电化学 制作 阴极 电池(电) 复合数 冶金 化学工程 复合材料 电极 电气工程 化学 物理化学 热力学 工程类 病理 功率(物理) 物理 替代医学 医学
作者
Wenhai Tan,Yichen Zhang,Yuhao Song,Yanbo Ma,Chao Zhao,Youfeng Zhang
出处
期刊:World Journal of Engineering [Emerald Publishing Limited]
标识
DOI:10.1108/wje-08-2023-0304
摘要

Purpose Aqueous zinc-ion battery has broad application prospects in smart grid energy storage, power tools and other fields. Co 3 O 4 is one of the ideal cathode materials for water zinc-ion batteries due to their high theoretical capacity, simple synthesis, low cost and environmental friendliness. Many studies were concentrated on the synthesis, design and doping of cathodes, but the effect of process parameters on morphology and performance was rarely reported. Design/methodology/approach Herein, Co 3 O 4 cathode material based on carbon cloth (Co 3 O 4 /CC) was prepared by different temperatures hydrothermal synthesis method. The temperatures of hydrothermal reaction are 100°C, 120°C, 130°C and 140°C, respectively. The influence of temperatures on the microstructures of the cathodes and electrochemical performance of zinc ion batteries were investigated by X-ray diffraction analysis, scanning electron microscopy, cyclic voltammetry curve, electrochemical charging and discharging behavior and electrochemical impedance spectroscopy test. Findings The results show that the Co 3 O 4 /CC material synthesized at 120°C has good performance. Co 3 O 4 /CC nanowire has a uniform distribution, regular surface and small size on carbon cloth. The zinc-ion battery has excellent rate performance and low reaction resistance. In the voltage range of 0.01–2.2 V, when the current density is 1 A/g, the specific capacity of the battery is 108.2 mAh/g for the first discharge and the specific capacity of the battery is 142.6 mAh/g after 60 charge and discharge cycles. Originality/value The study aims to investigate the effect of process parameters on the performance of zinc-ion batteries systematically and optimized applicable reaction temperature.

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