In Situ Conversion of Universal Hydraulic Energy to Electricity to Address Common Challenges in Water Treatment

Diverse water treatment technologies are widely applied to manage water quality, with ubiquitous hydraulic energy remaining. Emerging hydraulic pressure–electricity conversion, along with its in situ utilization, provides a promising strategy for addressing common challenges in water treatment, which is convenient, efficient, and practical. This innovative concept has garnered extensive interest and has achieved exciting progress over the past decade. Piezoelectricity, which induces charges via mechanical deformation, serves as a direct hydraulic energy harvesting mechanism to achieve force–electricity conversion, opening new avenues for innovating traditional water treatment technology while compensating for its shortcomings. However, such in situ hydraulic–electricity coupling is still in its early evolutionary stage and requires thorough investigation to determine future development directions. With this in mind, we discuss hydraulic piezoelectricity as a means of addressing common challenges in water treatment technologies, with a focus on representative membrane fouling, catalytic reactions, and sludge dewatering. Then, we further explore other emerging hydraulic-based technologies, such as hydrovoltaics, solid–liquid triboelectricity, and other energy methods, such as thermal energy, to expand the paradigm and scenarios of in situ electricity advancements in the water treatment process.

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Publication Details

Journal
Engineering
Published
2024-11-22
DOI
https://doi.org/10.1016/j.eng.2024.11.009
Primary Topic
Membrane Separation Technologies
Type
article
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article

In Situ Conversion of Universal Hydraulic Energy to Electricity to Address Common Challenges in Water Treatment

Qiancheng Xia, Guandao Gao, Xianjun Fang, Yongguang Bu et al.
1 links
Engineering
Membrane Separation Technologies
article

In Situ Conversion of Universal Hydraulic Energy to Electricity to Address Common Challenges in Water Treatment

Qiancheng Xia, Guandao Gao, Xianjun Fang, Yongguang Bu, Xiaohan Yang, Wenkai Zhang, Jiaming Yao
article en

Abstract

Diverse water treatment technologies are widely applied to manage water quality, with ubiquitous hydraulic energy remaining. Emerging hydraulic pressure–electricity conversion, along with its in situ utilization, provides a promising strategy for addressing common challenges in water treatment, which is convenient, efficient, and practical. This innovative concept has garnered extensive interest and has achieved exciting progress over the past decade. Piezoelectricity, which induces charges via mechanical deformation, serves as a direct hydraulic energy harvesting mechanism to achieve force–electricity conversion, opening new avenues for innovating traditional water treatment technology while compensating for its shortcomings. However, such in situ hydraulic–electricity coupling is still in its early evolutionary stage and requires thorough investigation to determine future development directions. With this in mind, we discuss hydraulic piezoelectricity as a means of addressing common challenges in water treatment technologies, with a focus on representative membrane fouling, catalytic reactions, and sludge dewatering. Then, we further explore other emerging hydraulic-based technologies, such as hydrovoltaics, solid–liquid triboelectricity, and other energy methods, such as thermal energy, to expand the paradigm and scenarios of in situ electricity advancements in the water treatment process.

EngineeringVol. 50
State Key Laboratory of Pollution Control and Resource Reuse (CN), Nanjing University (CN)
Clean water and sanitation
Openalex Percentile: Top 80%
Membrane Separation Technologies
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