Digital Technology Empowers the Optimization of Martial Arts Teaching and Training: A Study on Movement Correction and Training Effect Evaluation Based on Motion Capture Technology

Main Article Content

X. L. Chen

Abstract

Traditional martial arts teaching lacks refined diagnosis and quantitative intervention for motor skills, limiting objective movement evaluation and personalized training. This study proposes a quantitative assessment and correction framework for martial arts movements based on inertial motion capture technology, where wireless sensing and multimodal motion perception provide reliable support for high-precision human movement analysis. A data acquisition system employing 17 IMU sensors is established, and a multidimensional evaluation model incorporating posture stability, joint angle, trajectory straightness, and completion rate is developed for typical movements including the bow stance punch and whirlwind kick. Through real-time visual feedback and an 8-week controlled teaching experiment, the proposed system demonstrates effective movement correction and training optimization. Experimental results show that pelvic sway during the bow stance punch is reduced by 35.0%, while the body rotation completion rate during the whirlwind kick reaches 95.6%, indicating significant improvements in movement accuracy and objective training evaluation. The proposed framework provides an effective digital solution for intelligent motion analysis and electromagnetic sensing-enabled sports training applications.

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How to Cite
Chen, X. L. (2026). Digital Technology Empowers the Optimization of Martial Arts Teaching and Training: A Study on Movement Correction and Training Effect Evaluation Based on Motion Capture Technology. Advanced Electromagnetics, 15(3), 6833–6838. https://doi.org/10.7716/aem.v15i3.3759
Section
Research Articles

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