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锂的生物浸出:从废旧锂离子电池中回收锂的一种新兴方法。

Lithium bioleaching: An emerging approach for the recovery of Li from spent lithium ion batteries.

机构信息

School of Chemistry, University of New South Wales, Sydney, 2052, Australia.

Department of Biotechnology, Faculty of Biological Science and Technology, University of Isfahan, Isfahan, 81746-73441, Iran.

出版信息

Chemosphere. 2021 Aug;277:130196. doi: 10.1016/j.chemosphere.2021.130196. Epub 2021 Mar 6.

Abstract

The rapidly growing demand for lithium has resulted in a sharp increase in its price. This is due to the ubiquitous use of lithium-ion batteries (LIBs) in large-scale energy and transportation sectors as well as portable devices. Recycling of the LIBs for being the supply of critical metals hence becomes environmentally and economically viable. The presently used approaches for the recovery of spent LIBs like pyrometallurgical process can effectively recover nickel, cobalt, and copper, while lithium is usually lost in slag. Bioleaching process as an alternative method of extraction and recovery of valuable metals from the primary and secondary resources has been attracting a large pool of attraction. This method can provide higher recovery yield even for low concentration of metals which makes it viable among conventional methods. The bioleaching process can work with lower operating cost and consumed water and energy along with a simple condition, which produces less hazardous by-products ultimately. Here, we comprehensively review the biological and chemical mechanisms of the bioleaching process with a conclusive discussion to help how to extend the use of bioleaching for lithium extraction and recovery from the spent LIBs with a focus on recovery yields improvement. We elaborate on the three main types of the reported bioleaching with considering effective parameters including temperature, initial pH, pulp density, aeration, and medium and cell nutrients to sustain microorganism activity. Finally, practical challenges and future opportunities of lithium are discussed to inspire future research trends and pilot studies to realize the full potential of lithium recovery using sustainable bioleaching processes to extend a clean energy future.

摘要

由于锂离子电池(LIBs)在大规模能源和交通运输领域以及便携式设备中的广泛应用,对锂的需求迅速增长,导致其价格急剧上涨。回收 LIB 以供应关键金属因此在环境和经济上变得可行。目前用于回收废旧 LIB 的方法,如火法冶金工艺,可以有效地回收镍、钴和铜,而锂通常会流失在炉渣中。生物浸出作为从原生和次生资源中提取和回收有价金属的替代方法,引起了广泛关注。该方法即使对于低浓度的金属也能提供更高的回收产率,使其在传统方法中具有可行性。生物浸出过程可以以较低的运营成本和消耗的水和能源运行,并具有简单的条件,最终产生较少的危险副产品。在这里,我们全面审查了生物浸出过程的生物和化学机制,并进行了结论性讨论,以帮助如何扩展生物浸出在从废旧 LIB 中提取和回收锂方面的使用,重点是提高回收产率。我们详细阐述了三种主要类型的生物浸出,并考虑了包括温度、初始 pH 值、矿浆密度、曝气以及维持微生物活性的培养基和细胞营养物在内的有效参数。最后,讨论了锂的实际挑战和未来机遇,以激发未来的研究趋势和试点研究,从而利用可持续的生物浸出工艺充分发挥回收锂的潜力,为清洁能源的未来奠定基础。

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