An Ultra-fast Reaction Process for Recycling Lithium Ion Batteries via Galvanic Cell Interaction

IF 7.6 1区 化学 Q1 CHEMISTRY, MULTIDISCIPLINARY
Long Ye, Zhilong Xu, Haiqaing Gong, Zhiming Xiao, Bao Zhang, Lei Ming, Xing Ou
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引用次数: 0

Abstract

The efficient realization of closed-loop process is an ultimate goal for reusing the retired lithium-ion batteries (LIBs), yet the complicated recycling processes of leaching and purification in acid atmosphere are totally different with the regeneration method of cathode precursor in alkali solution inevitably resulting in the redundant consumption of acid/ammonia solutions and increased burden of green environment, Herein, considering the advantages of selective extraction and similar chemical surroundings between recovery and regeneration, ammonia-leaching has been proposed to achieve the short-process closed-loop recycling with effective impurity removal. Particularly, benefited from the galvanic cell interaction, the sluggish reaction rate and relative harsh reaction conditions of ammonia-leaching are well-addressed. High leaching efficiency can be achieved within 10 min, where nearly 80% valuable metals are extracted in the initial 1 min. Notably, this leaching solution after purification can be used to directly synthesize the cathode precursor by commercial alkali co-precipitation method, which is invulnerable to apply acid-base solutions back and forth. Compared with traditional solid-to-liquid reaction with shrinking core model, the solid-to-solid reaction with galvanic cell interaction substantially address the inherent issue of sluggish leaching efficiency, exhibiting much stronger competitiveness in leaching rate and environment cost. Thus, it provides prospects to achieve the large-scale recycling and regeneration of spent LIBs simultaneously in the whole-process alkali-atmosphere.
通过电化学电池相互作用回收锂离子电池的超快速反应过程
高效实现闭环工艺是退役锂离子电池(LIBs)再利用的终极目标,然而在酸性环境中浸出和净化的复杂回收工艺与在碱溶液中再生正极前驱体的方法完全不同,不可避免地造成酸/氨溶液的重复消耗,增加了绿色环境的负担、在此,考虑到选择性萃取的优势以及回收和再生之间相似的化学环境,提出了氨浸法,以实现有效去除杂质的短流程闭环回收。特别是得益于电解池的相互作用,氨浸法反应速率缓慢、反应条件相对苛刻的问题得到了很好的解决。在 10 分钟内就能达到很高的浸出效率,其中近 80% 的有价金属在最初的 1 分钟内就被提取出来。值得注意的是,这种经过净化的浸出液可以直接用商业碱共沉淀法合成阴极前驱体,这种方法不受酸碱溶液来回作用的影响。与传统的固-液反应缩芯模式相比,固-固反应电偶作用模式极大地解决了浸出效率低的固有问题,在浸出率和环境成本方面具有更强的竞争力。因此,它为在全过程碱-大气中同时实现废 LIB 的大规模回收和再生提供了前景。
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来源期刊
Chemical Science
Chemical Science CHEMISTRY, MULTIDISCIPLINARY-
CiteScore
14.40
自引率
4.80%
发文量
1352
审稿时长
2.1 months
期刊介绍: Chemical Science is a journal that encompasses various disciplines within the chemical sciences. Its scope includes publishing ground-breaking research with significant implications for its respective field, as well as appealing to a wider audience in related areas. To be considered for publication, articles must showcase innovative and original advances in their field of study and be presented in a manner that is understandable to scientists from diverse backgrounds. However, the journal generally does not publish highly specialized research.
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