Piezoionics: Strategies and applications for mechanical-to-ionic transduction

The piezoionic effect refers to the generation of high ionic currents due to ionic polarization caused by the differentiated movement of cations and anions in polymer electrolytes under gradient deformation. This novel power generation mechanism resembles physiological electricity and shows great promise in bio-related applications. The field of piezoionics benefits from the excellent designability of flexible polymeric materials in terms of their functionality and properties. In this review, the universal basic principles of piezoionics are described first. Subsequently, we summarize four strategies for enhancing net ionic flux through advanced material engineering: structural design optimization, interface engineering, phase separation control, and ion selectivity enhancement. Furthermore, we summarize the current applications in sensing and biointerface technology, as well as provide a prospective analysis of existing challenges and technical limitations for future development. Overall, this review aims to demonstrate the comprehensive development of novel piezoionics and accelerate the transition of these materials from basic research to practical applications.

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Publication Details

Journal
Nano Research
Published
2025-10-21
DOI
https://doi.org/10.26599/nr.2025.94908180
Primary Topic
Acoustic Wave Resonator Technologies
Type
article
Field-Weighted Citation Impact
0.00

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article

Piezoionics: Strategies and applications for mechanical-to-ionic transduction

Kaixuan Teng, Qi An, George Z. Chen, Sufang Guo
Nano Research
Acoustic Wave Resonator Technologies
article

Piezoionics: Strategies and applications for mechanical-to-ionic transduction

Kaixuan Teng, Qi An, George Z. Chen, Sufang Guo
article en

Abstract

The piezoionic effect refers to the generation of high ionic currents due to ionic polarization caused by the differentiated movement of cations and anions in polymer electrolytes under gradient deformation. This novel power generation mechanism resembles physiological electricity and shows great promise in bio-related applications. The field of piezoionics benefits from the excellent designability of flexible polymeric materials in terms of their functionality and properties. In this review, the universal basic principles of piezoionics are described first. Subsequently, we summarize four strategies for enhancing net ionic flux through advanced material engineering: structural design optimization, interface engineering, phase separation control, and ion selectivity enhancement. Furthermore, we summarize the current applications in sensing and biointerface technology, as well as provide a prospective analysis of existing challenges and technical limitations for future development. Overall, this review aims to demonstrate the comprehensive development of novel piezoionics and accelerate the transition of these materials from basic research to practical applications.

Nano ResearchVol. 19(4)
National Natural Science Foundation of China, State Key Laboratory of Supramolecular Structure and Materials, Fundamental Research Funds for the Central Universities
Openalex Percentile: Top 71%
Acoustic Wave Resonator Technologies
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