废锂离子电池锂回收可持续发展策略综述

J. Jayamuthunagai , R. Mary Nancy Flora , K. Senthilkumar , B. Bharathiraja
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摘要

锂离子电池(lib)对当今的能源存储技术至关重要,为手持设备、电动汽车和电网规模的可再生能源装置供电。在全球清洁能源转型的推动下,对锂的需求日益强劲,对可持续锂回收的需求也在加速。使用传统采矿方法提取锂不仅浪费能源,破坏环境,而且由于自然储量不断减少,也不可行。因此,从退役的锂电池中回收锂不仅对资源安全至关重要,而且对环境最小化也至关重要。本文概述了从废锂中提取锂的现有技术,重点介绍了四种主要方法:火法冶金法、湿法冶金法、电化学萃取法和生物浸出法。根据商业化阶段、锂提取效率、成本、环境影响和适用性对这些技术进行了比较。虽然火法冶金和湿法冶金更为传统,但它们可能需要高能量消耗和有毒化学品的利用。相比之下,生物浸出和电化学萃取等新技术提供了污染更少、选择性更强的工艺,但尚未开发用于大规模使用。新开发的深共晶溶剂辅助浸出、机械化学处理和生物电化学系统在提高锂提取效率的同时减少环境足迹方面显示出潜力。尽管技术进步,<; 1 %的锂在世界范围内被回收,迫切需要优化和整合现有的技术。本文对这些技术进行了比较,并提出了提高锂回收技术的发展方向,以实现更高的回收率、成本效益和生态友好性。最终,设计有效的回收方案对于支撑锂循环经济和实现长期能源安全至关重要。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Review on sustainable strategies for lithium recovery from spent lithium-ion batteries
Lithium-ion batteries (LIBs) are essential to today's energy storage technology, powering from handheld devices to electric vehicles and grid-scale renewable energy installations. With demand for LIBs rising ever more strongly—fuelled by the global clean energy shift—the demand for sustainable lithium recovery has accelerated. Extraction of lithium using traditional mining is energy-wasting, environmentally disruptive, and not viable given dwindling natural reserves. Thus, recycling lithium from retired LIBs is critical not just for resource security but also for environmental minimization. Herein is an overview of existing technologies applied for lithium extraction from spent LIBs, with emphasis on four dominant methods: pyrometallurgy, hydrometallurgy, electrochemical extraction, and bioleaching. The technologies are compared based on commercialization stage, efficiency in lithium extraction, cost, environmental impact, and applicability. Although pyrometallurgy and hydrometallurgy are more conventional, they may require high energy expenditure and toxic chemical utilization. For comparison, new technologies such as bioleaching and electrochemical extraction provide less polluting and more selective processes but are yet to be developed for large-scale use. Newly developed innovations in deep eutectic solvent-aided leaching, mechanochemical treatment, and bio-electrochemical systems have exhibited potential in enhancing lithium extraction efficiency while reducing environmental footprint. In spite of advances in technology, < 1 % of lithium is recycled world-wide, and there is an urgent need for optimizing and integrating the available technologies. This review paper contrasts these technologies and presents directions for the enhancement of lithium recycling techniques with the aims of realizing higher recovery rates, cost-effectiveness, and eco-friendliness. Eventually, designing effective recycling schemes will be important for underpinning a circular economy of lithium and in delivering long-term energy security.
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