A comprehensive review on the recovery of cathode active materials via direct recycling from spent Li-ion batteries

被引:33
作者
Shin, Youngjun [1 ]
Kim, Seoa [1 ]
Park, Sanghyuk [2 ]
Lee, Jimin [1 ]
Bae, Jihyeon [1 ]
Kim, Dongwoo [1 ]
Joo, Hyeoncheol [1 ]
Ban, Sungho [3 ]
Lee, Haeun [3 ]
Kim, Yonghoon [3 ]
Kwon, Kyungjung [1 ]
机构
[1] Sejong Univ, Dept Energy & Mineral Resources Engn, Seoul 05006, South Korea
[2] Sejong Univ, Autonomous Intelligent Unmanned Flying Vehicles In, Seoul 05006, South Korea
[3] Hyundai Motor Co, Battery Cell Dev Team, Hwaseong Si 18280, Gyeonggi Do, South Korea
基金
新加坡国家研究基金会;
关键词
Lithium-ion batteries; Direct recycling; Cathode active materials; Regeneration; LITHIUM COBALT OXIDE; VALUABLE METALS; THERMAL-TREATMENT; RE-SYNTHESIS; MECHANOCHEMICAL ACTIVATION; HYDROMETALLURGICAL PROCESS; ELECTROCHEMICAL PROPERTIES; FLOTATION TECHNOLOGY; VACUUM PYROLYSIS; HEAT-TREATMENT;
D O I
10.1016/j.rser.2023.113693
中图分类号
X [环境科学、安全科学];
学科分类号
08 ; 0830 ;
摘要
The appropriate disposal of spent Li-ion batteries (LIBs) is critical considering the limited resources of strategic metals and negative impacts on the environment as well as economic profits from LIB recycling. The direct recycling process as one of LIB recycling schemes regenerates spent cathode active materials through a series of liberation and relithiation processes without the destruction of active materials. In this review, we comprehensively cover the overall liberation and regeneration process for all kinds of commercial cathode active materials. Specifically, separation technologies that liberate cathode active materials are analyzed based on categorized methodologies including thermal treatment with single or multiple stages, chemical treatment through solvent-or mechanically-assisted dissolution methods, and the combined processes of chemo-thermal treatment. Next, we summarize the degradation mechanisms of cathode active materials and introduce regeneration methods that are mainly adopted in the direct recycling process such as solid-state, hydrothermal, molten-salt methods. We further compare the electrochemical performance of regenerated cathode active materials according to their regeneration process. The impacts of impurities that could exist during the direct recycling process on the structural and electrochemical properties of regenerated cathode active materials are firstly addressed. Lastly, research issues are suggested for the commercialization of the direct recycling process.
引用
收藏
页数:16
相关论文
共 131 条
  • [1] Understanding the effect of nonmetallic impurities in regenerated cathode materials for lithium-ion battery recycling by tracking down impurity elements
    Beak, Mincheol
    Park, Jangho
    Park, Sanghyuk
    Jeong, Seongdeock
    Kang, Jingu
    Choi, Woosung
    Yoon, Won-Sub
    Kwon, Kyungjung
    [J]. JOURNAL OF HAZARDOUS MATERIALS, 2022, 425
  • [2] Betts R., 2021, MET OFFICE ATMOSPHER
  • [3] Low-temperature thermal pretreatment process for recycling inner core of spent lithium iron phosphate batteries
    Bi, Haijun
    Zhu, Huabing
    Zu, Lei
    Gao, Yong
    Gao, Song
    Peng, Jielin
    Li, Huabing
    [J]. WASTE MANAGEMENT & RESEARCH, 2021, 39 (01) : 146 - 155
  • [4] Eddy current separation for recovering aluminium and lithium-iron phosphate components of spent lithium-iron phosphate batteries
    Bi, Haijun
    Zhu, Huabing
    Zu, Lei
    Gao, Yong
    Gao, Song
    Wu, Zhongwei
    [J]. WASTE MANAGEMENT & RESEARCH, 2019, 37 (12) : 1217 - 1228
  • [5] A Rapid and Facile Approach for the Recycling of High-Performance LiNi1-x-yCoxMnyO2Active Materials
    Binder, Jan O.
    Culver, Sean P.
    Zeier, Wolfgang G.
    Janek, Juergen
    [J]. CHEMSUSCHEM, 2021, 14 (01) : 441 - 448
  • [6] Environmentally friendly recycling and effective repairing of cathode powders from spent LiFePO4 batteries
    Chen, Jiangping
    Li, Qingwen
    Song, Jishun
    Song, Dawei
    Zhang, Lianqi
    Shi, Xianxing
    [J]. GREEN CHEMISTRY, 2016, 18 (08) : 2500 - 2506
  • [7] Process for the recovery of cobalt oxalate from spent lithium-ion batteries
    Chen, Liang
    Tang, Xincun
    Zhang, Yang
    Li, Lianxing
    Zeng, Zhiwen
    Zhang, Yi
    [J]. HYDROMETALLURGY, 2011, 108 (1-2) : 80 - 86
  • [8] Decreasing Li/Ni Disorder and Improving the Electrochemical Performances of Ni-Rich LiNi0.8Co0.1Mn0.1O2 by Ca Doping
    Chen, Minmin
    Zhao, Enyue
    Chen, Dongfeng
    Wu, Meimei
    Han, Songbai
    Huang, Qingzhen
    Yang, Limei
    Xiao, Xiaoling
    Hu, Zhongbo
    [J]. INORGANIC CHEMISTRY, 2017, 56 (14) : 8355 - 8362
  • [9] Renovation of LiCoO2 with outstanding cycling stability by thermal treatment with Li2CO3 from spent Li-ion batteries
    Chen, Shi
    He, Tao
    Lu, Yun
    Su, Yuefeng
    Tian, Jun
    Li, Ning
    Chen, Gang
    Bao, Liying
    Wu, Feng
    [J]. JOURNAL OF ENERGY STORAGE, 2016, 8 : 262 - 273
  • [10] Recycling of LiFePO4 cathode materials from spent lithium-ion batteries through ultrasound-assisted Fenton reaction and lithium compensation
    Chen, Xiangping
    Li, Shuzhen
    Wang, Yi
    Jiang, Youzhou
    Tan, Xiao
    Han, Weijiang
    Wang, Shubin
    [J]. WASTE MANAGEMENT, 2021, 136 : 67 - 75