Redefining the Health Risk of Battery Materials Through a Biologically Transformed Metal Mixture

The global transition to electric vehicles hinges on lithium-ion batteries, yet the health risks of their core components, such as nickel-manganese-cobalt (NCM) cathodes, remain a critical and misunderstood gap, threatening a truly sustainable energy transition. Herein, we reveal that inhaled NCM particles undergo sustained lysosomal dissolution, transforming into metal mixtures whose composition mirrors the parent material. Crucially, we decipher the unique toxicological interactions within this biologically generated mixture-antagonism from Ni/Co and synergy from Mn. This fundamental discovery of NCM's biological fate unlocks accurate risk assessment. Building on this mechanistic insight, we identified the Integrated Addition and Interaction (IAI) model as the framework capable of capturing complex interactions. Applying this model to real-world exposure data uncovers moderate yet significant population-level health risks. Our work establishes a transformative, evidence-based paradigm that connects in-body material transformation to real-world health outcomes, providing the scientific foundation to ensure that the clean energy transition is not only green but fundamentally safe for human well-being.

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Publication Details

Journal
Advanced Science
Published
2026-01-30
DOI
https://doi.org/10.1002/advs.202523469
Citations
1
Primary Topic
Extraction and Separation Processes
Type
article
Field-Weighted Citation Impact
19.05

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article

Redefining the Health Risk of Battery Materials Through a Biologically Transformed Metal Mixture

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1 citations
Advanced Science
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article

Redefining the Health Risk of Battery Materials Through a Biologically Transformed Metal Mixture

Yuxin Zheng, Yujie Song, Rong Zhang, Lu Dawei, Shanfa Yu, Xiaoting Jin, Zhao Shu, Xueyu Zhang, Ze Zhang, Gan Miao, Qian Liu, Yang Song
article en
1 citations

Abstract

The global transition to electric vehicles hinges on lithium-ion batteries, yet the health risks of their core components, such as nickel-manganese-cobalt (NCM) cathodes, remain a critical and misunderstood gap, threatening a truly sustainable energy transition. Herein, we reveal that inhaled NCM particles undergo sustained lysosomal dissolution, transforming into metal mixtures whose composition mirrors the parent material. Crucially, we decipher the unique toxicological interactions within this biologically generated mixture-antagonism from Ni/Co and synergy from Mn. This fundamental discovery of NCM's biological fate unlocks accurate risk assessment. Building on this mechanistic insight, we identified the Integrated Addition and Interaction (IAI) model as the framework capable of capturing complex interactions. Applying this model to real-world exposure data uncovers moderate yet significant population-level health risks. Our work establishes a transformative, evidence-based paradigm that connects in-body material transformation to real-world health outcomes, providing the scientific foundation to ensure that the clean energy transition is not only green but fundamentally safe for human well-being.

Advanced Science
Hebei Medical University (CN), Chinese Academy of Sciences (CN), Henan Provincial Institute of Occupational Health (CN), Qingdao Mental Health Center (CN), Research Center for Eco-Environmental Sciences (CN)
National Natural Science Foundation of China, Qingdao University
Industry, innovation and infrastructure
Openalex Percentile: Top 2%
Extraction and Separation Processes
19.05
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