Looming mismatch between retired EV battery waste generation and treatment across Chinese cities

The rapid deployment of lithium-ion batteries (LIBs) is shifting pressure toward end-of-life battery waste, raising concerns regarding the regional adaptability of waste treatment capacities. Given that retired LIBs enter either repurposing or recycling pathways, assessing their spatiotemporal evolution, spatial heterogeneity, and the geographic distribution of treatment capacities is essential for evaluating system performance and guiding effective facility planning. This study develops an integrated framework combining material flow analysis, spatial modeling, and cost evaluation to assess retired LIB dynamics, and explore the spatial distribution of repurposing and recycling enterprises across 335 Chinese cities from 2010 to 2023. Nationally, China faces severe overcapacity, with repurposing capacities exceeding retired LIB weight by 10.7 times and recycling capacities by 7.6 times. At the city level, only 66.9% of retired LIBs can be repurposed locally and 23.9% can be recycled within the city of origin. Even when including capacity in adjacent cities, accessibility remains highly uneven, with repurposing accessibility rising to nearly 91.1% while recycling increases only to 66.7%. These results reveal pronounced spatial heterogeneity and persistent mismatches between where LIBs retire and where treatment capacities are geographically accessible. This mismatch is substantially more pronounced for recycling than for repurposing. These findings indicate that prioritizing the deployment of repurposing and recycling capacity in cities with high retirement weight and high transport costs will be essential for improving accessibility, reducing long-distance transfers, and enhancing the overall efficiency of end-of-life LIB management. • Develop an integrated framework to evaluate retired LIB flows and formal treatment capacity. • Reveal severe national overcapacity in both repurposing and recycling. • Quantify spatial mismatches and intercity transport requirements and costs across Chinese cities. • Demonstrate the need for spatially informed facility planning to support battery circularity.

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Publication Details

Journal
Resources Environment and Sustainability
Published
2026-04-22
DOI
https://doi.org/10.1016/j.resenv.2026.100340
Primary Topic
Extraction and Separation Processes
Type
article
Field-Weighted Citation Impact
0.00

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article

Looming mismatch between retired EV battery waste generation and treatment across Chinese cities

Fanran Meng, Jon McKechnie, Yanfei Liu, Can Wang et al.
Resources Environment and Sustainability
Extraction and Separation Processes
article

Looming mismatch between retired EV battery waste generation and treatment across Chinese cities

Fanran Meng, Jon McKechnie, Yanfei Liu, Can Wang, Shujun Li, Daxing Xu, Tao Dai, Peng Wang
article en

Abstract

The rapid deployment of lithium-ion batteries (LIBs) is shifting pressure toward end-of-life battery waste, raising concerns regarding the regional adaptability of waste treatment capacities. Given that retired LIBs enter either repurposing or recycling pathways, assessing their spatiotemporal evolution, spatial heterogeneity, and the geographic distribution of treatment capacities is essential for evaluating system performance and guiding effective facility planning. This study develops an integrated framework combining material flow analysis, spatial modeling, and cost evaluation to assess retired LIB dynamics, and explore the spatial distribution of repurposing and recycling enterprises across 335 Chinese cities from 2010 to 2023. Nationally, China faces severe overcapacity, with repurposing capacities exceeding retired LIB weight by 10.7 times and recycling capacities by 7.6 times. At the city level, only 66.9% of retired LIBs can be repurposed locally and 23.9% can be recycled within the city of origin. Even when including capacity in adjacent cities, accessibility remains highly uneven, with repurposing accessibility rising to nearly 91.1% while recycling increases only to 66.7%. These results reveal pronounced spatial heterogeneity and persistent mismatches between where LIBs retire and where treatment capacities are geographically accessible. This mismatch is substantially more pronounced for recycling than for repurposing. These findings indicate that prioritizing the deployment of repurposing and recycling capacity in cities with high retirement weight and high transport costs will be essential for improving accessibility, reducing long-distance transfers, and enhancing the overall efficiency of end-of-life LIB management. • Develop an integrated framework to evaluate retired LIB flows and formal treatment capacity. • Reveal severe national overcapacity in both repurposing and recycling. • Quantify spatial mismatches and intercity transport requirements and costs across Chinese cities. • Demonstrate the need for spatially informed facility planning to support battery circularity.

Resources Environment and SustainabilityVol. 25
University of Nottingham (GB), Chinese Academy of Sciences (CN), Chinese Academy of Geological Sciences (CN), China University of Geosciences (Beijing) (CN), Institute of Urban Environment (CN), University of Chinese Academy of Sciences (CN), University of Sheffield (GB), Tsinghua University (CN)
National Natural Science Foundation of China, China Postdoctoral Science Foundation, National Major Science and Technology Projects of China, Institute of Urban Environment, Chinese Academy of Sciences
Openalex Percentile: Top 19%
Extraction and Separation Processes
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