For numerous years, stretching has been a widely employed technique across various sports disciplines. One of the primary factors influencing the effect on range of motion post-stretching is muscle-tendon stiffness (MTS). Recently, researchers have made groundbreaking discoveries, revealing that stretching can significantly enhance movement range by effectively decreasing MTS. While traditional static stretching has been a staple in warm-up routines, it also appears to adversely impact exercisers' strength performance, raising concerns among athletes and coaches alike. In response to these findings, various studies have introduced alternative stretching forms such as dynamic stretching and proprioceptive neuromuscular facilitation (PNF) stretching, alongside long-term training programs. These innovative approaches aim to optimize the beneficial effects of stretching while mitigating its detrimental outcomes on strength and performance. To comprehensively understand and delineate the immediate and prolonged impacts of both static and dynamic stretching, along with the efficacy of different stretching protocols, this study meticulously examined recent research articles. The objective of this review is to propose a clear terminology and methodology for stretching practices, thereby providing guidance for exercise training and physical activities. By doing so, it seeks to enhance the efficiency and scientific rigor of stretching protocols, ensuring that athletes and fitness enthusiasts can reap the maximum benefits from their stretching routines.
Research Article
Open Access