A Fully Self‐Powered Digital Wearable System for the Auxiliary Treatment of Plantar Fasciitis

Plantar fasciitis severely impairs daily life through persistent pain and limited mobility, whereas conventional treatments often lack real-time monitoring and personalized feedback. This study introduces a fully self-powered digital wearable system (FS-DWS), integrating an arch support auxiliary (ASA) device, a wearable sensing system (WSS), and a machine learning-driven closed-loop visualized feedback system (VFS) to enable real-time plantar pressure monitoring and abnormal gait recognition for the auxiliary treatment of plantar fasciitis. As a system-level engineering achievement, the ASA module integrates elastic support with energy harvesting, alleviating plantar pressure and powering the wearable sensing system without any batteries, with a maximum power density of 41.6 mW/cm<sup>3</sup>, one order of magnitude higher than those of previously reported biomechanical energy harvesting devices. The VFS utilizes a flexible sensor array to collect dynamic pressure data, which is processed via a machine learning algorithm to achieve real-time classification of 7 gait cycle phases with an accuracy of 99.3%, enabling identification of abnormal pressure distribution, causal tracing of gait deviations, and generation of personalized correction instructions. As a proof-of-concept study, the proposed dual-function strategy of "physical support + intelligent regulation" provides an efficient and sustainable approach to the long-term management of plantar fasciitis and supports a shift in therapeutic approach from passive relief to active correction.

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Publication Details

Journal
Advanced Science
Published
2026-02-16
DOI
https://doi.org/10.1002/advs.202521682
Primary Topic
Tendon Structure and Treatment
Type
article
Field-Weighted Citation Impact
0.00

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article

A Fully Self‐Powered Digital Wearable System for the Auxiliary Treatment of Plantar Fasciitis

Qiyi Nie, Qiqi Pan, Liming Xin, Shiyuan Liu et al.
Advanced Science
Tendon Structure and Treatment
article

A Fully Self‐Powered Digital Wearable System for the Auxiliary Treatment of Plantar Fasciitis

Qiyi Nie, Qiqi Pan, Liming Xin, Shiyuan Liu, Q. Meng X.D. Xu, Yilong Wang, Biao Wang, Jingyu Zhang, Jiacheng Hou, Zhonghe Wang, Ying Hong
article en

Abstract

Plantar fasciitis severely impairs daily life through persistent pain and limited mobility, whereas conventional treatments often lack real-time monitoring and personalized feedback. This study introduces a fully self-powered digital wearable system (FS-DWS), integrating an arch support auxiliary (ASA) device, a wearable sensing system (WSS), and a machine learning-driven closed-loop visualized feedback system (VFS) to enable real-time plantar pressure monitoring and abnormal gait recognition for the auxiliary treatment of plantar fasciitis. As a system-level engineering achievement, the ASA module integrates elastic support with energy harvesting, alleviating plantar pressure and powering the wearable sensing system without any batteries, with a maximum power density of 41.6 mW/cm<sup>3</sup>, one order of magnitude higher than those of previously reported biomechanical energy harvesting devices. The VFS utilizes a flexible sensor array to collect dynamic pressure data, which is processed via a machine learning algorithm to achieve real-time classification of 7 gait cycle phases with an accuracy of 99.3%, enabling identification of abnormal pressure distribution, causal tracing of gait deviations, and generation of personalized correction instructions. As a proof-of-concept study, the proposed dual-function strategy of "physical support + intelligent regulation" provides an efficient and sustainable approach to the long-term management of plantar fasciitis and supports a shift in therapeutic approach from passive relief to active correction.

Advanced Science
Shanghai University of Engineering Science (CN), Hebei University of Technology (CN), Hong Kong University of Science and Technology (HK), Harbin Institute of Technology (CN), Sichuan University (CN), West China Medical Center of Sichuan University (CN), West China Hospital of Sichuan University (CN), Shanghai Institute of Technology (CN), University of Hong Kong (HK), South China University of Technology (CN)
Natural Science Foundation of Shanghai, National Natural Science Foundation of China
Responsible consumption and production
Openalex Percentile: Top 55%
Tendon Structure and Treatment
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