A synthesis of biomechanics, physiology, and training research presenting evidence-based strategies to optimize golf-specific fitness, enhance performance, and reduce injury risk.
Evidence-based approaches to golf training optimize performance by integrating biomechanical analysis, targeted strength and mobility regimens, and physiological markers to improve efficiency and lower injury risk.
Biomechanical assessment integrated with targeted conditioning enhances golf performance by improving movement efficiency, neuromuscular coordination, and energy-system conditioning to reduce injury and increase shot consistency.
This review synthesizes evidence-based strategies for golf-specific fitness, integrating biomechanical insights, targeted conditioning, and periodized programs to enhance swing performance and minimize injury risk.
This article outlines an evidence-based framework for golf training, synthesizing biomechanics, physiological conditioning, and periodized programming to optimize performance and mitigate injury across skill levels.
This review integrates biomechanics, physiological determinants, and evidence-based training to elucidate how targeted strength, mobility, and motor control interventions optimize golf performance and reduce injury risk.
This review integrates biomechanics, exercise physiology, and targeted training to inform evidence-based strategies that enhance golf performance, promote efficient mechanics, and reduce injury risk.
Academic frameworks for golf training unify biomechanics, exercise physiology, and motor learning to guide assessment, prescribe evidence-based interventions, and evaluate outcomes for systematic performance enhancement.