A New Perspective on Exercise Rehabilitation Strategies Based on Hemodynamic Optimization: Enhancing Skeletal Muscle Repair

The integration of hemodynamics into exercise rehabilitation has gained attention as a promising approach to enhance skeletal muscle repair. This study connects the physiological linkage between hemodynamics and muscle regeneration, focusing on how exercise-induced hemodynamic changes can optimize recovery outcomes. By reviewing recent literature, the research examines the mechanisms of blood flow restriction (BFR) training and its impact on muscle repair, alongside other emerging techniques like compression therapy. The key research question is how hemodynamic parameters can be adapted to design personalized rehabilitation strategies. Findings suggest that optimizing blood flow shear stress and oxygenation levels could improve muscle regeneration efficiency, particularly for sports injuries. This study proposes a theoretical framework for tailoring exercise prescriptions based on hemodynamic data, offering a low-cost, non-invasive solution. However, challenges such as accessibility and patient compliance remain. This work emphasizes the potential of hemodynamic-focused rehabilitation and calls for further exploration into integrating wearable technology for real-time monitoring, contributing to precision rehabilitation in sports science and therapy.