Abstract / Summary
Chronic load-bearing tendinopathy represents a state of failed healing, characterized by the formation of fibrotic scar tissue, stress shielding, and the stagnation of mechanotransduction. Current conservative treatments or isolated invasive interventions often fail because they do not simultaneously address the disconnection among three factors: anatomical structure, biochemistry, and biomechanics. This paper proposes a synergistic multimodal regenerative hypothesis to completely reverse the tendon degeneration process. Phase one (Structural Disruption) utilizes ultrasound-guided miniscalpel-needle therapy to directly dissect the fibrotic shield, eliminate stress concentration points, and restart local microcirculation. Phase two (Synergistic Remodeling) leverages this physiological window to combine high-dose Collagen Peptides (CP) and Vitamin C supplementation to provide abundant raw materials for the extracellular matrix, coupled with heavy slow resistance (HSR) training. The mechanical load from HSR serves as an obligatory mechanical catalyst, activating tenocytes to increase the secretion of cross-linking enzymes and realign the collagen fibril network axially. By proposing a comprehensive 12-week clinical protocol, this model promises the potential to restore both mechanical properties (Young’s Modulus) and structural hypertrophy (CSA), establishing a solid foundation for future randomized controlled trials (RCTs).