Category
Applied
Description
Background – (Patient Populations): Although ice hockey players and figure skaters often share the same training environment, the biomechanical demands of their sports differ substantially. These sports-specific movement patterns may contribute to distinct lower-extremity musculoskeletal asymmetries and injury risk.
Differential Diagnosis – (Purpose – Objective): To examine the kinematic differences between ice hockey skating stride mechanics and figure skating jumping mechanics, and to identify how these sport-specific demands influence susceptibility to lower-extremity overuse injuries.
Treatment – (Data sources): A comprehensive literature review was conducted to evaluate existing research on biomechanical loading patterns, muscle activation profiles, and injury prevalence among ice hockey players and figure skaters. Additional data collection from reported lower-extremity musculoskeletal injuries documented by the sports medicine and athletic training staff to determine comparisons between collegiate ice hockey players and collegiate figure skaters.
Uniqueness – (Results, Outcomes, and Comparisons): Current literature suggests that ice hockey players are particularly prone to “stiff hip” presentations and groin strains, often associated with restricted hip range of motion (ROM) and shortened adductor musculature. These adaptations appear linked to the repetitive, shortened stride mechanical characteristics of hockey skating. In contrast, figure skaters exhibit a higher incidence of dynamic knee valgus, frequently attributed to inadequate gluteal activation during the eccentric deceleration phase of jump landings. This biomechanical pattern contributes to instability-based injuries, which are further exacerbated by the sport’s tendency toward increased joint hypermobility and reduced neuromuscular stability.
Conclusions – (Clinical Bottom Line): Credentialed athletic trainers and other allied healthcare professionals should consider the distinct biomechanical demands of ice hockey and figure skating when conducting injury evaluations, treatments/rehabilitations, and designing injury-prevention strategies. Reliance on generalized, non-sport- specific screening protocols may overlook critical risk factors and inadvertently contribute to higher rates of lower-extremity injuries among ice-sport athletes.
Comparative Analysis of Lower-Extremity Musculoskeletal Injuries in Ice Hockey Players and Figure Skaters – A Level 4 Case Study
Applied
Background – (Patient Populations): Although ice hockey players and figure skaters often share the same training environment, the biomechanical demands of their sports differ substantially. These sports-specific movement patterns may contribute to distinct lower-extremity musculoskeletal asymmetries and injury risk.
Differential Diagnosis – (Purpose – Objective): To examine the kinematic differences between ice hockey skating stride mechanics and figure skating jumping mechanics, and to identify how these sport-specific demands influence susceptibility to lower-extremity overuse injuries.
Treatment – (Data sources): A comprehensive literature review was conducted to evaluate existing research on biomechanical loading patterns, muscle activation profiles, and injury prevalence among ice hockey players and figure skaters. Additional data collection from reported lower-extremity musculoskeletal injuries documented by the sports medicine and athletic training staff to determine comparisons between collegiate ice hockey players and collegiate figure skaters.
Uniqueness – (Results, Outcomes, and Comparisons): Current literature suggests that ice hockey players are particularly prone to “stiff hip” presentations and groin strains, often associated with restricted hip range of motion (ROM) and shortened adductor musculature. These adaptations appear linked to the repetitive, shortened stride mechanical characteristics of hockey skating. In contrast, figure skaters exhibit a higher incidence of dynamic knee valgus, frequently attributed to inadequate gluteal activation during the eccentric deceleration phase of jump landings. This biomechanical pattern contributes to instability-based injuries, which are further exacerbated by the sport’s tendency toward increased joint hypermobility and reduced neuromuscular stability.
Conclusions – (Clinical Bottom Line): Credentialed athletic trainers and other allied healthcare professionals should consider the distinct biomechanical demands of ice hockey and figure skating when conducting injury evaluations, treatments/rehabilitations, and designing injury-prevention strategies. Reliance on generalized, non-sport- specific screening protocols may overlook critical risk factors and inadvertently contribute to higher rates of lower-extremity injuries among ice-sport athletes.
