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Navigating energy transition solutions for climate targets with minerals constraint

Author

Listed:
  • Yi-Ming Wei

    (Beijing Institute of Technology
    Basic Science Center for Energy and Climate Change
    Beijing Institute of Technology
    Beijing Laboratory for System Engineering of Carbon Neutrality)

  • Lan-Cui Liu

    (Beijing Normal University)

  • Jia-Ning Kang

    (Beijing Institute of Technology
    Basic Science Center for Energy and Climate Change
    Beijing Institute of Technology
    Beijing Laboratory for System Engineering of Carbon Neutrality)

  • Yunlong Zhang

    (Beijing Institute of Technology
    Basic Science Center for Energy and Climate Change
    Beijing Laboratory for System Engineering of Carbon Neutrality)

  • Song Peng

    (Beijing Institute of Technology
    Basic Science Center for Energy and Climate Change
    Beijing Institute of Technology
    Beijing Laboratory for System Engineering of Carbon Neutrality)

  • Hua Liao

    (Beijing Institute of Technology
    Basic Science Center for Energy and Climate Change
    Beijing Institute of Technology
    Beijing Laboratory for System Engineering of Carbon Neutrality)

  • Shuo Xu

    (Beijing Institute of Technology
    Beijing Academy of Science and Technology)

  • Lutao Zhao

    (Beijing Institute of Technology
    Basic Science Center for Energy and Climate Change
    Beijing Institute of Technology
    Beijing Laboratory for System Engineering of Carbon Neutrality)

  • Haoben Yan

    (Beijing Normal University)

  • Xiangyan Qian

    (Beijing Institute of Technology
    Nanjing Agricultural University)

  • Qiao-Mei Liang

    (Beijing Institute of Technology
    Basic Science Center for Energy and Climate Change
    Beijing Institute of Technology
    Beijing Laboratory for System Engineering of Carbon Neutrality)

  • Yizhuo Ji

    (Beijing Institute of Technology
    Basic Science Center for Energy and Climate Change
    Beijing Institute of Technology
    Beijing Laboratory for System Engineering of Carbon Neutrality)

  • Xiaoxi Tian

    (Beijing Institute of Technology
    China University of Mining and Technology (Beijing))

  • Weiming Chen

    (Beijing Institute of Technology
    Basic Science Center for Energy and Climate Change
    Beijing Institute of Technology
    Beijing Laboratory for System Engineering of Carbon Neutrality)

  • Jiaquan Li

    (Beijing Institute of Technology
    China University of Geosciences (Beijing))

  • Hongkun Cui

    (Beijing Institute of Technology
    Basic Science Center for Energy and Climate Change
    Beijing Institute of Technology
    Beijing Laboratory for System Engineering of Carbon Neutrality)

  • Min Dai

    (Beijing Institute of Technology
    China University of Mining and Technology (Beijing))

  • Xiaoyu Li

    (Beijing Institute of Technology)

  • Daisong Wang

    (Beijing Institute of Technology
    Basic Science Center for Energy and Climate Change
    Beijing Institute of Technology
    Beijing Laboratory for System Engineering of Carbon Neutrality)

  • Fang Yu

    (Beijing Institute of Technology)

  • Jinhang Qi

    (Beijing Institute of Technology)

  • Biying Yu

    (Beijing Institute of Technology
    Basic Science Center for Energy and Climate Change
    Beijing Institute of Technology
    Beijing Laboratory for System Engineering of Carbon Neutrality)

Abstract

Urgent decarbonization is imperative, yet mineral scarcity may threaten low-carbon technology deployment, potentially challenging transition pathways. Here, through the analysis of 557 mitigation pathways from the Intergovernmental Panel on Climate Change Sixth Assessment Report using the Global Resource Evaluation of Abatement Technologies model, we systematically quantify demand and potential shortages for 40 minerals critical to 17 energy technologies. We find that all pathways may experience global shortages of up to 12 minerals by 2100 under the moderate scenario, with more severe shortages of indium, tin, cadmium and tellurium related to thin-film photovoltaic, wind and nuclear power (>50% of pathways). Regional disparities would intensify these risks, particularly in developing, resource-vulnerable regions (for example, the Middle East and Africa), with potential shortages reaching 24 minerals. Hence, we propose better solutions that balance emissions reduction with resource constraints and regional equity, revealing that decarbonization requires more than technological innovation. It demands the strategic integration of diversified energy technology portfolios, aggressive recycling, material substitution and global trade cooperation, alongside moderate gross domestic product growth.

Suggested Citation

  • Yi-Ming Wei & Lan-Cui Liu & Jia-Ning Kang & Yunlong Zhang & Song Peng & Hua Liao & Shuo Xu & Lutao Zhao & Haoben Yan & Xiangyan Qian & Qiao-Mei Liang & Yizhuo Ji & Xiaoxi Tian & Weiming Chen & Jiaquan, 2025. "Navigating energy transition solutions for climate targets with minerals constraint," Nature Climate Change, Nature, vol. 15(8), pages 833-841, August.
  • Handle: RePEc:nat:natcli:v:15:y:2025:i:8:d:10.1038_s41558-025-02373-3
    DOI: 10.1038/s41558-025-02373-3
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