从废弃锂离子电池中回收阴极和电解液综述:最新技术、工艺和政策

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引用次数: 0

摘要

近年来,锂离子电池(LIB)因其优越的性能被广泛应用于电子、汽车等行业,因此产生了越来越多的废锂离子电池。更严重的是,锂电池中含有潜在的有毒物质,包括重金属、含有 LiBF4、LiClO4 和 LiPF6 的有毒易燃电解液。通过填埋或焚烧处理废锂电池的传统方法对环境造成了巨大压力。有必要采用高效、低成本、环保的方法对废锂电池进行增值处理,不仅可以通过回收利用铜、锂、锰、镍、钴和铝等有价元素缓解稀有资源短缺的问题,还可以消除电池中有害成分的污染,实现与消费电子产品和电动汽车(EV)相关的循环利用和可持续发展产业。有鉴于此,本文总结了废锂电池的回收技术,包括火法冶金(熔融还原法和焙烧法)和湿法冶金(浸出法、沉淀法、萃取法、离子交换法、电化学法、溶胶-凝胶法),以及电解液回收(有机溶剂萃取法和超临界萃取法)。火法冶金技术的金属回收率相对较高,但能耗和大气排放问题较多。湿法冶金技术在回收废锂离子电池方面更加环保和高效,但处理过程中产生的废水仍是一项挑战。此外,还研究了回收废锂离子电池的不同工业流程和各国的相关政策。最后,提出了废锂离子电池回收的展望和未来方向。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

A review of cathode and electrolyte recovery from spent lithium-ion batteries: Recent technologies, processes and policies

A review of cathode and electrolyte recovery from spent lithium-ion batteries: Recent technologies, processes and policies

Recently, lithium-ion batteries (LIBs), due to their superior performance, have been vastly applied in electronic, auto, and other industries, resulting in the generation of an increasing amount of spent LIBs. What's worse, LIBs contained potentially toxic substances, including heavy metals, toxic and flammable electrolyte containing LiBF4, LiClO4, and LiPF6. Conventional disposal of spent LIBs via landfill or incineration exerts tremendous pressure on the environment. It was necessary to adopt efficient, low-cost, and environmentally friendly approaches to valorizing spent LIBs, which could not only alleviate the shortage of rare resources by recycling valuable elements such as Cu, Li, Mn, Ni, Co, and Al, but also eliminate the pollution of harmful components in batteries and realize the recycling and sustainable industry related to consumer electronics and electric vehicles (EVs). Given this, this paper summarized the recycling technologies of spent LIBs, including pyrometallurgy (melting reduction and roasting methods) and hydrometallurgy (leaching, precipitation, extraction, ion-exchange, electrochemical, sol-gel methods), and electrolyte recycling (organic solvent extraction and supercritical extraction methods). Pyrometallurgy technologies had relatively decent metal recovery rates but were associated with high energy consumption and atmospheric emission issues. Hydrometallurgical technologies were more environmentally friendly and efficient in recovering spent LIBs, although disposing of the wastewater generated from the process remained a challenge. In addition, the different industrial processes and various countries’ related policies of recycling spent LIBs were investigated. In the end, the outlooks and future directions of recycling spent LIBs were proposed.

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