锂离子电池的工业回收——冶金工艺路线综述

L. Brückner, J. Frank, T. Elwert
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引用次数: 97

摘要

锂离子电池(LIBs)回收利用的研究始于大约15年前。近年来,在欧洲的小型工业工厂中已经实现了几种工艺,可分为两大工艺路线。第一种是将火法冶金与随后的湿法冶金相结合,第二种是将机械加工(通常经过热预处理)与冶金加工相结合。两种工艺路线在立法和健康、安全和环境要求、组件的可能回收率、工艺稳健性和经济因素方面都有一系列的优点和缺点。本文重点讨论了锂电池组件和电池的冶金加工现状。虽然确定了主要的冶金工艺路线,但仍有一些问题尚未解决。大多数工艺路线对贵重金属钴、铜和镍的收率都很高。相比之下,锂虽然具有很高的经济价值,但只能通过几种方法回收,而且产量较低。回收低价值组分石墨、锰和电解质溶剂在技术上是可行的,但在经济上具有挑战性。有机和卤素成分的处理在所有工艺路线中造成技术困难和高成本。因此,需要进一步改进,以在大量LIB废料返回之前关闭LIB循环。
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Industrial Recycling of Lithium-Ion Batteries—A Critical Review of Metallurgical Process Routes
Research for the recycling of lithium-ion batteries (LIBs) started about 15 years ago. In recent years, several processes have been realized in small-scale industrial plants in Europe, which can be classified into two major process routes. The first one combines pyrometallurgy with subsequent hydrometallurgy, while the second one combines mechanical processing, often after thermal pre-treatment, with metallurgical processing. Both process routes have a series of advantages and disadvantages with respect to legislative and health, safety and environmental requirements, possible recovery rates of the components, process robustness, and economic factors. This review critically discusses the current status of development, focusing on the metallurgical processing of LIB modules and cells. Although the main metallurgical process routes are defined, some issues remain unsolved. Most process routes achieve high yields for the valuable metals cobalt, copper, and nickel. In comparison, lithium is only recovered in few processes and with a lower yield, albeit a high economic value. The recovery of the low value components graphite, manganese, and electrolyte solvents is technically feasible but economically challenging. The handling of organic and halogenic components causes technical difficulties and high costs in all process routes. Therefore, further improvements need to be achieved to close the LIB loop before high amounts of LIB scrap return.
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