Research Pathways for Automotive Exhaust Catalysts during the Transition to Electric Mobility

High Resolution Image Download MS PowerPoint Slide The global automotive market has long been dominated by internal combustion vehicles (ICVs), which have provided essential mobility but also emitted air pollutants that harm human health and environment. Exhaust treatment catalysts have played a central role in mitigating these emissions, allowing ICVs to remain viable for decades. However, despite advances in catalyst technology, the continued reliance on fossil-fuel vehicles has driven steady increases in atmospheric CO 2, contributing to climate change and intensifying global environmental risks. In recent years, the rapid rise of electric vehicles (EVs), which eliminate tailpipe emissions, has prompted renewed discussion about the future relevance of automotive catalysts. This transition raises key questions: How quickly can EVs replace ICVs? What environmental challenges will persist during this shift? What role will catalytic technologies play in the evolving transportation landscape? In this contribution, we examine the environmental motivations behind EV adoption and assess their benefits and limitations using recent market and emissions data. We highlight constraints, including adoption barriers, hybrid vehicle cold-start emissions, and the difficulty of electrifying heavy-duty transport, that ensure catalysts will remain essential. Finally, we outline pathways for catalyst researchers to redefine their focus and remain impactful in the coming decades.

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Publication Details

Journal
Environmental Science & Technology
Published
2026-06-30
DOI
https://doi.org/10.1021/acs.est.5c17872
Primary Topic
Catalytic Processes in Materials Science
Type
article
Field-Weighted Citation Impact
0.00

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article

Research Pathways for Automotive Exhaust Catalysts during the Transition to Electric Mobility

Seong Yeol Jang, Soo Chool Lee, Jaeha Lee, Jae Hyeon Yu et al.
Environmental Science & Technology
Catalytic Processes in Materials Science
article

Research Pathways for Automotive Exhaust Catalysts during the Transition to Electric Mobility

Seong Yeol Jang, Soo Chool Lee, Jaeha Lee, Jae Hyeon Yu, Jueon Kim
article en

Abstract

High Resolution Image Download MS PowerPoint Slide The global automotive market has long been dominated by internal combustion vehicles (ICVs), which have provided essential mobility but also emitted air pollutants that harm human health and environment. Exhaust treatment catalysts have played a central role in mitigating these emissions, allowing ICVs to remain viable for decades. However, despite advances in catalyst technology, the continued reliance on fossil-fuel vehicles has driven steady increases in atmospheric CO 2, contributing to climate change and intensifying global environmental risks. In recent years, the rapid rise of electric vehicles (EVs), which eliminate tailpipe emissions, has prompted renewed discussion about the future relevance of automotive catalysts. This transition raises key questions: How quickly can EVs replace ICVs? What environmental challenges will persist during this shift? What role will catalytic technologies play in the evolving transportation landscape? In this contribution, we examine the environmental motivations behind EV adoption and assess their benefits and limitations using recent market and emissions data. We highlight constraints, including adoption barriers, hybrid vehicle cold-start emissions, and the difficulty of electrifying heavy-duty transport, that ensure catalysts will remain essential. Finally, we outline pathways for catalyst researchers to redefine their focus and remain impactful in the coming decades.

Environmental Science & Technology
Kyungpook National University (KR)
National Research Foundation, Ministry of Education, Ministry of Trade, Industry and Energy, National Research Foundation of Korea, Ministry of Education, India, Ministry of Science and ICT, South Korea, Korea Institute of Energy Technology Evaluation and Planning
Climate action
Openalex Percentile: Top 17%
Catalytic Processes in Materials Science
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