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回收利用还是二次使用?报废电动汽车电池的供应潜力和气候影响。

Recycling or Second Use? Supply Potentials and Climate Effects of End-of-Life Electric Vehicle Batteries.

作者信息

Wesselkämper Jannis, Hendrickson Thomas P, Lux Simon, von Delft Stephan

机构信息

Energy Analysis & Environmental Impacts Division, Lawrence Berkeley National Laboratory, Berkeley, California 94720, United States.

Institute of Business Administration at the Department of Chemistry and Pharmacy, University of Münster, Leonardo Campus 1, 48148 Münster, Germany.

出版信息

Environ Sci Technol. 2025 Aug 5;59(30):15751-15765. doi: 10.1021/acs.est.5c01823. Epub 2025 Jul 23.

Abstract

Recycling and reuse in stationary energy storage (second use) are beneficial options to further utilize electric vehicle (EV) battery materials and residual capacities after end-of-life (EoL). In California, EV sales shares have steadily increased recently, and state policies to achieve 100% zero-emission vehicle sales by 2035 will further result in a rapidly growing number of EoL EV batteries. Based on modeling material flows and climate effects, in this study, EoL EV battery supply scenarios and the effect of recycling and second use on battery demand and saved greenhouse gas (GHG) emissions are investigated on a regional level in California until 2050. The results indicate that stationary energy storage demands can be met by more than 100% by 2050 through the second use of EoL EV batteries. By contrast, recycling is expected to cover around 61% of the overall EV battery demand annually by 2050. Within system boundaries, the second use scenario, where EoL EV batteries are prioritized to be further used in stationary storage applications, shows potential cumulative GHG emission savings of about 55.8 MtCOeq through the avoidance of battery production for stationary energy storage. Recycling of all EoL EV batteries results in GHG emission savings of about 48.3 MtCOeq until 2050, driven by the replacement of primary raw materials in battery production. Finally, a comprehensive sensitivity analysis shows that adapting several model parameters, such as remanufacturing emissions, EV sales, battery lifetimes, and applied recycling processes, can have a substantial impact on the EoL EV battery supply and GHG emission savings by 2050.

摘要

固定储能(二次利用)中的回收与再利用是进一步利用电动汽车(EV)报废后电池材料和剩余容量的有益选择。在加利福尼亚州,近期电动汽车的销售份额稳步增长,而该州到2035年实现100%零排放车辆销售的政策将进一步导致报废电动汽车电池数量迅速增加。基于对物质流和气候影响的建模,本研究在区域层面上对加利福尼亚州直至2050年的报废电动汽车电池供应情景以及回收和二次利用对电池需求和温室气体(GHG)减排的影响进行了调查。结果表明,到2050年,通过报废电动汽车电池的二次利用,可以满足超过100%的固定储能需求。相比之下,预计到2050年,回收利用将每年覆盖约61%的电动汽车电池总需求。在系统边界内,优先将报废电动汽车电池用于固定储能应用的二次利用情景显示,通过避免固定储能电池的生产,潜在的累计温室气体减排量约为5580万吨二氧化碳当量。到2050年,所有报废电动汽车电池的回收利用将实现约4830万吨二氧化碳当量的温室气体减排,这是由电池生产中初级原材料的替代推动的。最后,一项全面的敏感性分析表明,调整几个模型参数,如再制造排放、电动汽车销售、电池寿命和应用的回收工艺,可能会对2050年的报废电动汽车电池供应和温室气体减排产生重大影响。

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