Biophysical and biomechanical factors, such as excessive anterior tibial translation, valgus stress, and muscle activation imbalances, significantly increase the risk of anterior cruciate ligament injuries.
Systematic Review
Anterior Cruciate Ligament (ACL) injuries rank among the most prevalent and severe types of injuries, significantly impacting both athletes and non-athletes alike. These injuries not only result in immediate physical impairment, such as intense pain, substantial swelling, and a marked loss of mobility, but also carry long-term health consequences that can alter a person's quality of life. Chronic pain, persistent instability, and an increased risk of developing osteoarthritis are among the lasting effects that can follow an ACL injury. An in-depth understanding of the biophysics behind ACL injuries is paramount for devising effective prevention and treatment protocols. Biophysics, which combines principles from physics with biological systems, provides crucial insights into the mechanical and structural integrity of the ACL and its susceptibility to injury under various conditions. This systematic review aims to collate and synthesize the current knowledge surrounding the biophysical mechanisms that underlie ACL injuries.
Kacprzak et al. (Sat,) conducted a systematic review in Anterior Cruciate Ligament (ACL) injuries. Biophysical and biomechanical factors, such as excessive anterior tibial translation, valgus stress, and muscle activation imbalances, significantly increase the risk of anterior cruciate ligament injuries.