材料科学
再生(生物学)
阴极
电池(电)
化学工程
工艺工程
环境科学
工程类
电气工程
量子力学
生物
细胞生物学
物理
功率(物理)
作者
Liuyang Yu,Xiaobin Liu,Shanshan Feng,Shengzhe Jia,Yuan Zhang,Jiaxuan Zhu,Weiwei Tang,Jingkang Wang,Junbo Gong
标识
DOI:10.1016/j.cej.2023.146733
摘要
Concerns over non-renewable metal resources and environmental degradation are growing as a result of the exponential increase of market dominance of Lithium (Li)-ion batteries in energy storage devices, for example electric automobile. As one of the leading materials of Li-ion battery—LiNixCoyMnzO2 (NCM), the regenerated technology of NCM has received lots of attention in recent years due to the extreme scarcity of transition metals. The regeneration strategies are innovatively divided into indirect regeneration strategy and direct regeneration strategy according to the damage of cathode material of NCM in the regeneration process. After introducing the pretreatment process and common leaching reagents, the co-precipitation and sol–gel indirect regeneration methods and their respective advantages and disadvantages are summarized. In contrast, based on the degradation mechanism of NCM cathode materials, solid-state and hydrothermal direct regeneration strategies are summed up. Further, some emerging direct regeneration strategies such as Li-based eutectic molten salt, novel coating strategies, and electrochemical methods are discussed. Finally, these methods are systematically summarized and compared, and the prospect of future NCM battery regeneration is proposed to accelerate the recovery and application of cathode materials on an industrial scale.
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