Regional muscle load grade prediction method and device based on deep learning

By combining inertial motion capture and biomechanical simulation with deep learning, a high-fidelity labeled dataset is generated, and a deep learning model is trained to achieve real-time, low-cost assessment of muscle load in multiple regions of the whole body. This solves the problems of computational complexity and universality of traditional methods and provides interpretable prediction results.

CN121845531AActive Publication Date: 2026-04-14NAT UNIV OF DEFENSE TECH
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Patent Information

Application Number
CN202610325169.7
Authority / Receiving Office
CN · China
Patent Type
Applications(China)
Current Assignee / Owner
Filing Date
2026-03-17
Publication Date
2026-04-14
Estimated Expiration
2046-03-17

AI Technical Summary

Technical Problem

Existing technologies struggle to achieve real-time, low-cost, and non-invasive assessment of muscle load across multiple regions and scenarios throughout the body. Furthermore, traditional methods are computationally complex, time-consuming, and lack versatility and interpretability.

Method used

Motion data is collected by an inertial motion capture system, and after standardized preprocessing, it is input into an individualized biomechanical simulation process to generate a high-fidelity labeled dataset. A deep learning model is then trained to achieve a mapping from joint motion to muscle load levels.

Benefits of technology

We have developed an efficient, universal, and interpretable end-to-end muscle load assessment system that solves the problem of scarce training data labels and enables fast and accurate prediction of muscle load levels.

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Abstract

The invention relates to a regional muscle load grade prediction method and device based on deep learning. The method comprises the following steps: acquiring original motion data captured by inertial motion; carrying out standardized pretreatment on the sample; driving an individualized biomechanical simulation model by using the preprocessed data, and generating a high-fidelity muscle load grade label data set through muscle force calculation, regional aggregation and grade discretization; training a deep learning model according to the data set; and finally, using the trained model to quickly predict new motion data, and outputting the load level of each muscle area. According to the method, through an integrated process, the contradiction between label scarcity and real-time requirements in non-intrusive muscle load assessment is solved, and efficient and interpretable muscle load assessment is realized.
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