Flash joule‐heating technology for material manufacturing, processing, and emerging applications

Abstract Flash Joule‐heating (FJH) technology emerges as a transformative advancement in electrothermal processing with minimal carbon footprint, which leverages high‐intensity electrical pulses to rapidly heat conductive materials to extreme temperatures (often exceeding 3000 K), inducing dramatic structural transformations through non‐equilibrium pathways, thus displaying feasibility across various application scenarios. Noteworthily, FJH technology has evolved from a laboratory practice to a cornerstone of sustainable materials engineering, witnessing ever‐growing researching interests. Thus, a holistic and timely summary of the recent progress and development of FJH technology is of crucial importance to deepen the understandings and update the remaining difficulties in each application that need to be resolved. While challenges still remain on inhibiting the scaled production upon the deployment of FJH, as such, this review proposes perspectives and strategies to help address key unresolved challenges ghosting FJH technology, in order to make the quick landing of FJH‐led industrial revolution and production.

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Publication Details

Journal
AIChE Journal
Published
2026-01-07
DOI
https://doi.org/10.1002/aic.70215
Citations
1
Primary Topic
Microbial Inactivation Methods
Type
article
Field-Weighted Citation Impact
27.96

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article

Flash joule‐heating technology for material manufacturing, processing, and emerging applications

Peng Huang, Dong Xia, S. Z. Zhou, Ye Yang et al.
1 citations
AIChE Journal
Microbial Inactivation Methods
27.96
article

Flash joule‐heating technology for material manufacturing, processing, and emerging applications

Peng Huang, Dong Xia, S. Z. Zhou, Ye Yang, Shaochen Zhang, Xiaoxi Yuan, Chaohui Yan
article en
1 citations

Abstract

Abstract Flash Joule‐heating (FJH) technology emerges as a transformative advancement in electrothermal processing with minimal carbon footprint, which leverages high‐intensity electrical pulses to rapidly heat conductive materials to extreme temperatures (often exceeding 3000 K), inducing dramatic structural transformations through non‐equilibrium pathways, thus displaying feasibility across various application scenarios. Noteworthily, FJH technology has evolved from a laboratory practice to a cornerstone of sustainable materials engineering, witnessing ever‐growing researching interests. Thus, a holistic and timely summary of the recent progress and development of FJH technology is of crucial importance to deepen the understandings and update the remaining difficulties in each application that need to be resolved. While challenges still remain on inhibiting the scaled production upon the deployment of FJH, as such, this review proposes perspectives and strategies to help address key unresolved challenges ghosting FJH technology, in order to make the quick landing of FJH‐led industrial revolution and production.

AIChE JournalVol. 72(4)
Henry Royce Institute (GB), Ingenierie des Materiaux polymeres (FR), Wuhan Institute of Technology (CN)
Wuhan Institute of Technology
Industry, innovation and infrastructure
Openalex Percentile: Top 2%
Microbial Inactivation Methods
27.96
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