Journal of Sports Sciences · 2018 · 60 citations · 29 references
EducationKinesiologySports MedicineAthletic TrainingHuman PerformanceMovement AnalysisAthletic PerformanceBiomechanics Of Athletic MovementMotor TimingMovement TimingSports BiomechanicsCollision FrequenciesIndividualized Training PrescriptionSport-specific Movement AnalysisSport-specific Movement PatternsTraining Load Prescription
Understanding the most demanding passages of European Super League competition can optimise training prescription. We established positional and match half differences in peak relative distances (m·min−1) across durations, and the number of collisions, high-speed- and very-high-speed-distance completed in the peak 10 min period. Moving-averages (10 s, 30 s, 1 min, 5 min, 10 min) of instantaneous speed (m·s−1) were calculated from 25 professional rugby league players during 25 matches via microtechnology. Maximal m·min−1 was taken for each duration for each half. Concurrently, collisions (n), high-speed- (5 to 7 m·s−1; m) and very-high-speed-distance (> 7 m·s−1; m) were coded during each peak 10 min. Mixed-effects models determined differences between positions and halves. Aside from peak 10 s, trivial differences were observed in peak m·min−1 between positions or halves across durations. During peak 10 min periods, adjustables, full- and outside-backs ran more at high-speed and very-high-speed whilst middle- and edge-forwards completed more collisions. Peak m·min−1 is similar between positional groups across a range of durations and are maintained between halves of the match. Practitioners should consider that whilst the overall peak locomotor “intensity” is similar, how they achieve this differs between positions with forwards also exposed to additional collision bouts.
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Torbjørn Soligard, Martin Schwellnus, Juan Manuel Alonso et al. · British Journal of Sports Medicine · 2016 · 986 citations · Full text