Development of Personalized Human Digital Twin for Exercising

Exercise requires quantitative planning and monitoring. Digital approaches offer a potential solution; however, developing subject-specific digital twin (DT) models remains challenging. Here, we propose a method to establish personalized human digital twin for exercising. Compared to the conventional methods that relies on medical imaging, we identify personalized biomechanical parameters, i.e., maximum isometric muscle force, based on the electromyographic (EMG) signals, kinematics data, and interaction forces. It allows for rapid and cost effective creation of individualized musculoskeletal models. Application studies demonstrate that our approach can accurately model the back squat movement in five subjects, yielding normalized RMSE of 0.2 for the ankle and hip joints, and 0.3 for the knee joints. These advantages, as a result, indicate a convincing strong potential for personalized exercise planning and monitoring.

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Publication Details

Published
2025-08-10
DOI
https://doi.org/10.1109/wrcsara68202.2025.11194942
Primary Topic
Digital Transformation in Industry
Type
article
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article

Development of Personalized Human Digital Twin for Exercising

Ning Xi, Yuetian Chen, Xi Wu, Jialiang Huang et al.
Digital Transformation in Industry
article

Development of Personalized Human Digital Twin for Exercising

Ning Xi, Yuetian Chen, Xi Wu, Jialiang Huang, Ping Yang, Jiangcheng Chen, Xin Ma, Kehan Zou, Chenzui Li, Yijian Zhang, Fei Chen
article en

Abstract

Exercise requires quantitative planning and monitoring. Digital approaches offer a potential solution; however, developing subject-specific digital twin (DT) models remains challenging. Here, we propose a method to establish personalized human digital twin for exercising. Compared to the conventional methods that relies on medical imaging, we identify personalized biomechanical parameters, i.e., maximum isometric muscle force, based on the electromyographic (EMG) signals, kinematics data, and interaction forces. It allows for rapid and cost effective creation of individualized musculoskeletal models. Application studies demonstrate that our approach can accurately model the back squat movement in five subjects, yielding normalized RMSE of 0.2 for the ankle and hip joints, and 0.3 for the knee joints. These advantages, as a result, indicate a convincing strong potential for personalized exercise planning and monitoring.

Chinese University of Hong Kong (HK), Shenzhen Academy of Robotics (CN), University of Hong Kong (HK)
Openalex Percentile: Top 58%
Digital Transformation in Industry
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