Reutilization and upcycling of spent graphite for sustainable lithium-ion batteries: Progress and perspectives

In the development of sustainable lithium-ion batteries, achieving the efficient and cost-effective recycling of all components, particularly spent graphite (SG) anodes, has become a critical requirement. While considerable efforts have been devoted to recovering and reusing SG materials under conventional conditions, limited attention has been given to recycling under extreme conditions. This review systematically elucidates the main failure mechanisms of graphite anodes, including lithium plating and dendrite formation, solid electrolyte interface film failure, structural degradation, and current collector corrosion, with a particular focus on low-temperature and fast-charging conditions. As a contribution toward optimizing resource utilization, this review comprehensively summarizes the industrial perspective on strategies for recycling SG anodes, which aim to produce high-purity regenerated graphite (RG) powders. We also analyze current methods for modifying RG, such as structural reconstruction and surface reconditioning, to bring added value to modified RG materials. A detailed examination of the technical challenges in SG recycling and RG upgrading is presented, offering guidance for the future development of graphite upcycling technologies. This review also provides valuable insights into achieving high efficiency, intelligence, and sustainability in graphite utilization. • The failure mechanisms of graphite under conventional and extreme conditions are analyzed. • Recycling strategies and structural-level modifications for spent graphite are discussed. • Technical challenges and future directions for upcycling graphite are explored.

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Publication Details

Journal
eScience
Published
2025-02-21
DOI
https://doi.org/10.1016/j.esci.2025.100394
Citations
30
Primary Topic
Extraction and Separation Processes
Type
article
Field-Weighted Citation Impact
21.40

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article

Reutilization and upcycling of spent graphite for sustainable lithium-ion batteries: Progress and perspectives

Jiawei Xiong, Feng Wu, Cen Chen, Xue–Qian Li et al.
30 citations
eScience
Extraction and Separation Processes
21.40
article

Reutilization and upcycling of spent graphite for sustainable lithium-ion batteries: Progress and perspectives

Jiawei Xiong, Feng Wu, Cen Chen, Xue–Qian Li, Jiao Lin, Yi Zhao, Chenglong Deng, Li Li, Xiaodong Zhang, Renjie Chen, Qiaoyi Yan, Mengyao Liu
article en
30 citations

Abstract

In the development of sustainable lithium-ion batteries, achieving the efficient and cost-effective recycling of all components, particularly spent graphite (SG) anodes, has become a critical requirement. While considerable efforts have been devoted to recovering and reusing SG materials under conventional conditions, limited attention has been given to recycling under extreme conditions. This review systematically elucidates the main failure mechanisms of graphite anodes, including lithium plating and dendrite formation, solid electrolyte interface film failure, structural degradation, and current collector corrosion, with a particular focus on low-temperature and fast-charging conditions. As a contribution toward optimizing resource utilization, this review comprehensively summarizes the industrial perspective on strategies for recycling SG anodes, which aim to produce high-purity regenerated graphite (RG) powders. We also analyze current methods for modifying RG, such as structural reconstruction and surface reconditioning, to bring added value to modified RG materials. A detailed examination of the technical challenges in SG recycling and RG upgrading is presented, offering guidance for the future development of graphite upcycling technologies. This review also provides valuable insights into achieving high efficiency, intelligence, and sustainability in graphite utilization. • The failure mechanisms of graphite under conventional and extreme conditions are analyzed. • Recycling strategies and structural-level modifications for spent graphite are discussed. • Technical challenges and future directions for upcycling graphite are explored.

eScienceVol. 5(4)
Beijing Institute of Technology (CN), University of Georgia (US), Key Laboratory of Nuclear Radiation and Nuclear Energy Technology (CN), State Key Laboratory of Chemical Engineering (CN), Zhuhai Institute of Advanced Technology (CN), Beijing University of Chemical Technology (CN)
Beijing Outstanding Young Talents, National Natural Science Foundation of China, Natural Science Foundation of Beijing Municipality, Natural Science Foundation of Shandong Province, National Key Research and Development Program of China
Responsible consumption and production
Openalex Percentile: Top 0%
Extraction and Separation Processes
21.40
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