Magneto-mechano-electrochemical fiber for deformation-resilient and smart electronic textiles

Electronic textiles represent a transformative platform for integrating technology into daily wear, yet their development has been undermined by a fundamental challenge: the conflicting requirements between mechanical deformation for functionality and structural stability for performance. This challenge is particularly acute in cylindrical fiber electrodes, where inherent nonuniform electric field distribution leads to dendrite formation and poor active material utilization-problems that are further exacerbated by mechanical deformation. Here, we present a magneto-mechano-electrochemical architecture that addresses this challenge. Through magnetoelectrochemistry, magneto-mechano-electrochemical fiber promotes uniform electrochemical reactions, extending the battery lifespan by (374 ± 79)% and enhancing the capacity by (61 ± 20)% at a current density of 1.0 ampere per gram in the undeformed state. The magnetic field remains effective in regulating ion transport and stabilizing electrode structure under deformation. This deformation-resilient platform simultaneously enables energy harvesting from body motion and physiological monitoring through electromagnetic induction and magnetoelastic sensing, thereby transforming conventional textiles into deformation-resilient and smart health monitoring systems.

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Publication Details

Journal
Science Advances
Published
2026-10-16
DOI
https://doi.org/10.1126/sciadv.aef4338
Primary Topic
Advanced Sensor and Energy Harvesting Materials
Type
article
Field-Weighted Citation Impact
0.00

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article

Magneto-mechano-electrochemical fiber for deformation-resilient and smart electronic textiles

Lei Shen, Xiao Xiao, Zhiqun Lin, Patrick Chia et al.
Science Advances
Advanced Sensor and Energy Harvesting Materials
article

Magneto-mechano-electrochemical fiber for deformation-resilient and smart electronic textiles

Lei Shen, Xiao Xiao, Zhiqun Lin, Patrick Chia, Benjamin C. K. Tee, Wenbo Ding, Yiliang Lin, Guangmin Zhou, Ghim Wei Ho, Changsheng Wu, Junyi Yin, Chengyue Lu, Gang Ge, John S. Ho, Zhuangjian Liu, He Wang, Xiao Xiao, Xiao Li, Chun Zhang, Xinru Wu, Zimo Wang, Wei Zhang, Chang Liu
article en

Abstract

Electronic textiles represent a transformative platform for integrating technology into daily wear, yet their development has been undermined by a fundamental challenge: the conflicting requirements between mechanical deformation for functionality and structural stability for performance. This challenge is particularly acute in cylindrical fiber electrodes, where inherent nonuniform electric field distribution leads to dendrite formation and poor active material utilization-problems that are further exacerbated by mechanical deformation. Here, we present a magneto-mechano-electrochemical architecture that addresses this challenge. Through magnetoelectrochemistry, magneto-mechano-electrochemical fiber promotes uniform electrochemical reactions, extending the battery lifespan by (374 ± 79)% and enhancing the capacity by (61 ± 20)% at a current density of 1.0 ampere per gram in the undeformed state. The magnetic field remains effective in regulating ion transport and stabilizing electrode structure under deformation. This deformation-resilient platform simultaneously enables energy harvesting from body motion and physiological monitoring through electromagnetic induction and magnetoelastic sensing, thereby transforming conventional textiles into deformation-resilient and smart health monitoring systems.

Science AdvancesVol. 12(42)
Agency for Science, Technology and Research (SG), National University of Singapore (SG), Nanyang Technological University (SG), Institute of High Performance Computing (SG), University of Chicago (US), Tsinghua Shenzhen International Graduate School (CN), Institute for Health Innovation & Technology (SG), Tsinghua University (CN)
Agency for Science, Technology and Research, National Research Foundation Singapore
Openalex Percentile: Top 24%
Advanced Sensor and Energy Harvesting Materials
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