Table 3.
References | Study Population | Injury Occurrence Period | Methods | Tasks | Variables | Results (IL vs. NIL) |
---|---|---|---|---|---|---|
Lee et al. [42] | 12 males from various running-based sports Hx | 1–36 months | Laboratory based. Over-ground running. Data measured using 3D MOCAP combined with a force plate. | 6 x submaximal running trials at 80 % of maximum speed (mean = 7.7 ± 0.1 m/s). |
|
|
Silder et al. [43] | 15 participants (males and females) from various running-based sports Hx | 5–13 months | Laboratory based. Motorised treadmill. Data measured using 3D MOCAP, sEMG system (BF, RF, VL and MH) and musculoskeletal modelling. | Running trials at 60, 80, 90 and 100% of maximal sprinting (Mean = 7.6 ±1 m/s) |
|
|
Brughelli et al. [44] | 11 male semi-professional AFL players Hx | 1–24 months | Laboratory based. Non-motorized treadmill. Horizontal force: measured with a nonelastic tether attached to the participant with a harness and connected to a horizontal load cell. Vertical force: measured by 4 load cells mounted under the running surface. | 8 s of steady-state running at 80% of maximum speed. |
|
|
Barreira et al. [46] | 6 males professional soccer players Hx | 1–24 months | Laboratory based. Non-motorized curved treadmill equipped with force transducers located on the frame supporting the belt. | 10 s of maximal sprinting (acceleration and steady-state period included). |
|
|
Higashihara et al. [49] | 10 male college sprinters Hx | 2–61 months | Laboratory based. Over-ground sprinting. Data measured using 3D MOCAP, sEMG system (LH and GM) and musculoskeletal modelling. | Maximal sprinting on 100 m track (average speed: 9.39±0.17 m/s). |
|
|
CS: cross-sectional, Hx: with a history of HSI, IL: injured limb, NIL: uninjured limb, MOCAP: motion capture, θ: angle, ω: angular velocity, M: moment, P: power, VL: Vastus Lateralis, RF: Rectus Femoris, LH: lateral hamstring, MH: medial hamstring and GM: Gluteus Maximus.