Scaling up Piezocatalytic Water Decontamination: Challenges and Opportunities

The large-scale development of piezocatalytic water treatment technologies is emerging as a pivotal pathway for integrating effective water pollution control and sustainable energy utilization. This field holds substantial promise for shaping future water treatment systems that are energy-efficient, environmentally sustainable, and scalable in engineering. Here, the key scientific and technological bottlenecks that hinder the transition of piezocatalysis from fundamental laboratory research to practical engineering applications are critically revisited. We systematically examine multi-level mechanistic insights into force–electric–chemical coupling, scalable fabrication strategies for catalytic materials, principles for reactor scale-up and material–equipment compatibility, and sustainability assessment methodologies grounded in life-cycle assessment and techno-economic analysis. Building on this foundation, several priorities for future research are further outlined, including long-term validation under realistic operating conditions, multi-level mechanistic elucidation, establishment of full-process safety assessment frameworks, and development of standardized sustainability evaluation systems. Collectively, these efforts will provide both a theoretical basis and an actionable technological roadmap for moving piezocatalytic water treatment technologies toward engineering implementation.

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Publication Details

Journal
ACS ES&T Water
Published
2026-02-16
DOI
https://doi.org/10.1021/acsestwater.5c01452
Primary Topic
Advanced oxidation water treatment
Type
article
Field-Weighted Citation Impact
0.00
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article

Scaling up Piezocatalytic Water Decontamination: Challenges and Opportunities

Enmiao Jiao, Xiaoyu Wang, Yanfei Wei, Daqing Jia et al.
ACS ES&T Water
Advanced oxidation water treatment
article

Scaling up Piezocatalytic Water Decontamination: Challenges and Opportunities

Enmiao Jiao, Xiaoyu Wang, Yanfei Wei, Daqing Jia, Mingyang Xing, Yue Jiang, Tao Yu, Meng Yang
article en

Abstract

The large-scale development of piezocatalytic water treatment technologies is emerging as a pivotal pathway for integrating effective water pollution control and sustainable energy utilization. This field holds substantial promise for shaping future water treatment systems that are energy-efficient, environmentally sustainable, and scalable in engineering. Here, the key scientific and technological bottlenecks that hinder the transition of piezocatalysis from fundamental laboratory research to practical engineering applications are critically revisited. We systematically examine multi-level mechanistic insights into force–electric–chemical coupling, scalable fabrication strategies for catalytic materials, principles for reactor scale-up and material–equipment compatibility, and sustainability assessment methodologies grounded in life-cycle assessment and techno-economic analysis. Building on this foundation, several priorities for future research are further outlined, including long-term validation under realistic operating conditions, multi-level mechanistic elucidation, establishment of full-process safety assessment frameworks, and development of standardized sustainability evaluation systems. Collectively, these efforts will provide both a theoretical basis and an actionable technological roadmap for moving piezocatalytic water treatment technologies toward engineering implementation.

ACS ES&T WaterVol. 6(3)
East China University of Science and Technology (CN), MCC Huatian Engineering and Technology Corporation (CN), Zhejiang University of Technology (CN)
Openalex Percentile: Top 56%
Advanced oxidation water treatment
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