阴极
湿法冶金
锂(药物)
火法冶金
环境污染
废物管理
电池(电)
过程(计算)
工艺工程
材料科学
纳米技术
环境科学
工程类
计算机科学
冶金
电气工程
环境保护
冶炼
物理
内分泌学
量子力学
功率(物理)
操作系统
硫酸
医学
作者
Sihan Li,Zhan Wu,Miaoquan Zhang,Jianping Xu,Zheyu Jin,Yongping Gan,Zhihong Xu,Qingli Wang,Wenkui Zhang,Xia Yang,Xinping He,Jun Zhang
标识
DOI:10.1002/chem.202404461
摘要
In recent years, lithium‐ion batteries have become an important part of the global transition to green and low‐carbon energy. However, due to the rapidly increasing demand and production of lithium‐ion batteries, there is a large amount of spent batteries that need to be disposed of. The most critical and valuable recycling of spent batteries is the recycling of cathode materials. Pyrometallurgy and hydrometallurgy are traditional recycling processes aimed at extracting valuable metal elements from cathode materials. However, these methods have several disadvantages, including destruction of the structure of cathode materials, lengthy repair processes, high energy consumption and high environmental pollution. The direct recycling process is a popular repair technology for cathode materials in lithium‐ion batteries. The aim is to restore or upgrade the cathode materials in a non‐destructive manner or convert them into other functional products for secondary use, characterized by a short repair process, high atom utilization, lower costs and lower carbon emissions. This perspective summarizes the current status of lithium‐ion battery recycling, with a focus on direct recycling of cathode materials. It describes the pretreatment process, theoretical foundations, direct regeneration strategies and perspectives and provides insights for relevant researchers.
科研通智能强力驱动
Strongly Powered by AbleSci AI