Volleyball Virtual Training System Combining 3D Modeling and VR Technology
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Abstract
This study develops a volleyball virtual training system combining 3D modeling and VR technology, designed to enhance athletes’ technical and tactical skills through immersive, interactive, and data-driven training. High-precision 3D scene modeling, real-time full-body motion capture, and low-latency feedback enable accurate kinematic analysis and personalized coaching. The system integrates multi-modal training modules, including technical skill development, tactical cooperation, AI-based game simulation, and real-time performance analytics. Experimental evaluation with 60 athletes of different skill levels demonstrated significant improvements in serve accuracy, spike success rate, passing stability, tactical awareness, and training satisfaction. The framework is particularly relevant for wireless communication-enabled VR environments and antenna-supported sensor networks, where precise, low-latency data transmission and real-time feedback are critical for effective immersive training.
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