Recent Progress and Perspective on Synergistic Electrospinning and Joule Heating for Advanced Electrocatalyst Design

Conventional solid phase synthesis of electrocatalysts is in the thermodynamic equilibrium, which can lead to nanoparticle fragmentation and high energy loss. Ultrafast Joule heating provides a kinetic breakthrough, but it can be applied directly to powder precursors that exhibit electro‐thermal heterogeneity. This review highlights a combination of electrospinning and ultrafast Joule heating. By reconfiguring the precursor as an active, engineered network, continuous carbon nanofiber network forms uniform conductive pathways and one‐dimensional confinement bars agglomeration. This allows in situ synthesis of nonequilibrium catalysts, including defect‐engineered carbon, high‐loading single‐atom catalysts, and high‐entropy nano‐alloys. Finally, key challenges and future trends concerning the precursor carbonization controversy, scalable production uniformity, and in situ characterization are discussed.

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Publication Details

Journal
Advanced Synthesis & Catalysis
Published
2026-04-27
DOI
https://doi.org/10.1002/adsc.70477
Primary Topic
Electrocatalysts for Energy Conversion
Type
article
Field-Weighted Citation Impact
0.00

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article

Recent Progress and Perspective on Synergistic Electrospinning and Joule Heating for Advanced Electrocatalyst Design

Yufan Zeng, J N Li, Yuqi Song, Y L Chen et al.
Advanced Synthesis & Catalysis
Electrocatalysts for Energy Conversion
article

Recent Progress and Perspective on Synergistic Electrospinning and Joule Heating for Advanced Electrocatalyst Design

Yufan Zeng, J N Li, Yuqi Song, Y L Chen, Wenyu Yin, Qi Dong, Jialun Chen, Lei Kuang
article en

Abstract

Conventional solid phase synthesis of electrocatalysts is in the thermodynamic equilibrium, which can lead to nanoparticle fragmentation and high energy loss. Ultrafast Joule heating provides a kinetic breakthrough, but it can be applied directly to powder precursors that exhibit electro‐thermal heterogeneity. This review highlights a combination of electrospinning and ultrafast Joule heating. By reconfiguring the precursor as an active, engineered network, continuous carbon nanofiber network forms uniform conductive pathways and one‐dimensional confinement bars agglomeration. This allows in situ synthesis of nonequilibrium catalysts, including defect‐engineered carbon, high‐loading single‐atom catalysts, and high‐entropy nano‐alloys. Finally, key challenges and future trends concerning the precursor carbonization controversy, scalable production uniformity, and in situ characterization are discussed.

Advanced Synthesis & CatalysisVol. 368(9)
Yibin University (CN), Southwest Jiaotong University (CN)
National Natural Science Foundation of China, Fundamental Research Funds for the Central Universities
Openalex Percentile: Top 12%
Electrocatalysts for Energy Conversion
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