Influence of Resisted Sled-Pull Training on the Sprint Force-Velocity Profile of Male High-School Athletes

ABSTRACTCahill, MJ, Oliver, JL, Cronin, JB, Clark, K, Cross, MR, Lloyd, RS, and Lee, JE. Influence of resisted sled-pull training on the sprint force-velocity profile of male high-school athletes. J Strength Cond Res 34(10)2751–2759, 2020—Although resisted sled towing is a commonly used method of sp...

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Veröffentlicht in:Journal of strength and conditioning research 2020-10, Vol.34 (10), p.2751-2759
Hauptverfasser: Cahill, Micheál J., Oliver, Jon L., Cronin, John B., Clark, Kenneth, Cross, Matt R., Lloyd, Rhodri S., Lee, Jeong E.
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container_end_page 2759
container_issue 10
container_start_page 2751
container_title Journal of strength and conditioning research
container_volume 34
creator Cahill, Micheál J.
Oliver, Jon L.
Cronin, John B.
Clark, Kenneth
Cross, Matt R.
Lloyd, Rhodri S.
Lee, Jeong E.
description ABSTRACTCahill, MJ, Oliver, JL, Cronin, JB, Clark, K, Cross, MR, Lloyd, RS, and Lee, JE. Influence of resisted sled-pull training on the sprint force-velocity profile of male high-school athletes. J Strength Cond Res 34(10)2751–2759, 2020—Although resisted sled towing is a commonly used method of sprint-specific training, little uniformity exists around training guidelines for practitioners. The aim of this study was to assess the effectiveness of unresisted and resisted sled-pull training across multiple loads. Fifty-three male high-school athletes were assigned to an unresisted (n = 12) or 1 of 3 resisted groupslight (n = 15), moderate (n = 14), and heavy (n = 12) corresponding to loads of 44 ± 4 %BM, 89 ± 8 %BM, and 133 ± 12 %BM that caused a 25, 50, and 75% velocity decrement in maximum sprint speed, respectively. All subjects performed 2 sled-pull training sessions twice weekly for 8 weeks. Split times of 5, 10, and 20 m improved across all resisted groups (d = 0.40–1.04, p < 0.01) but did not improve with unresisted sprinting. However, the magnitude of the gains increased most within the heavy group, with the greatest improvement observed over the first 10 m (d ≥ 1.04). Changes in preintervention to postintervention force-velocity profiles were specific to the loading prescribed during training. Specifically, F0 increased most in moderate to heavy groups (d = 1.08–1.19); Vmax significantly decreased in the heavy group but increased in the unresisted group (d = 012–0.44); whereas, Pmax increased across all resisted groups (d = 0.39–1.03). The results of this study suggest that the greatest gains in short distance sprint performance, especially initial acceleration, are achieved using much heavier sled loads than previously studied in young athletes.
doi_str_mv 10.1519/JSC.0000000000003770
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Influence of resisted sled-pull training on the sprint force-velocity profile of male high-school athletes. J Strength Cond Res 34(10)2751–2759, 2020—Although resisted sled towing is a commonly used method of sprint-specific training, little uniformity exists around training guidelines for practitioners. The aim of this study was to assess the effectiveness of unresisted and resisted sled-pull training across multiple loads. Fifty-three male high-school athletes were assigned to an unresisted (n = 12) or 1 of 3 resisted groupslight (n = 15), moderate (n = 14), and heavy (n = 12) corresponding to loads of 44 ± 4 %BM, 89 ± 8 %BM, and 133 ± 12 %BM that caused a 25, 50, and 75% velocity decrement in maximum sprint speed, respectively. All subjects performed 2 sled-pull training sessions twice weekly for 8 weeks. Split times of 5, 10, and 20 m improved across all resisted groups (d = 0.40–1.04, p &lt; 0.01) but did not improve with unresisted sprinting. However, the magnitude of the gains increased most within the heavy group, with the greatest improvement observed over the first 10 m (d ≥ 1.04). Changes in preintervention to postintervention force-velocity profiles were specific to the loading prescribed during training. Specifically, F0 increased most in moderate to heavy groups (d = 1.08–1.19); Vmax significantly decreased in the heavy group but increased in the unresisted group (d = 012–0.44); whereas, Pmax increased across all resisted groups (d = 0.39–1.03). 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Influence of resisted sled-pull training on the sprint force-velocity profile of male high-school athletes. J Strength Cond Res 34(10)2751–2759, 2020—Although resisted sled towing is a commonly used method of sprint-specific training, little uniformity exists around training guidelines for practitioners. The aim of this study was to assess the effectiveness of unresisted and resisted sled-pull training across multiple loads. Fifty-three male high-school athletes were assigned to an unresisted (n = 12) or 1 of 3 resisted groupslight (n = 15), moderate (n = 14), and heavy (n = 12) corresponding to loads of 44 ± 4 %BM, 89 ± 8 %BM, and 133 ± 12 %BM that caused a 25, 50, and 75% velocity decrement in maximum sprint speed, respectively. All subjects performed 2 sled-pull training sessions twice weekly for 8 weeks. Split times of 5, 10, and 20 m improved across all resisted groups (d = 0.40–1.04, p &lt; 0.01) but did not improve with unresisted sprinting. However, the magnitude of the gains increased most within the heavy group, with the greatest improvement observed over the first 10 m (d ≥ 1.04). Changes in preintervention to postintervention force-velocity profiles were specific to the loading prescribed during training. Specifically, F0 increased most in moderate to heavy groups (d = 1.08–1.19); Vmax significantly decreased in the heavy group but increased in the unresisted group (d = 012–0.44); whereas, Pmax increased across all resisted groups (d = 0.39–1.03). 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Influence of resisted sled-pull training on the sprint force-velocity profile of male high-school athletes. J Strength Cond Res 34(10)2751–2759, 2020—Although resisted sled towing is a commonly used method of sprint-specific training, little uniformity exists around training guidelines for practitioners. The aim of this study was to assess the effectiveness of unresisted and resisted sled-pull training across multiple loads. Fifty-three male high-school athletes were assigned to an unresisted (n = 12) or 1 of 3 resisted groupslight (n = 15), moderate (n = 14), and heavy (n = 12) corresponding to loads of 44 ± 4 %BM, 89 ± 8 %BM, and 133 ± 12 %BM that caused a 25, 50, and 75% velocity decrement in maximum sprint speed, respectively. All subjects performed 2 sled-pull training sessions twice weekly for 8 weeks. Split times of 5, 10, and 20 m improved across all resisted groups (d = 0.40–1.04, p &lt; 0.01) but did not improve with unresisted sprinting. However, the magnitude of the gains increased most within the heavy group, with the greatest improvement observed over the first 10 m (d ≥ 1.04). Changes in preintervention to postintervention force-velocity profiles were specific to the loading prescribed during training. Specifically, F0 increased most in moderate to heavy groups (d = 1.08–1.19); Vmax significantly decreased in the heavy group but increased in the unresisted group (d = 012–0.44); whereas, Pmax increased across all resisted groups (d = 0.39–1.03). The results of this study suggest that the greatest gains in short distance sprint performance, especially initial acceleration, are achieved using much heavier sled loads than previously studied in young athletes.</abstract><cop>United States</cop><pub>Journal of Strength and Conditioning Research</pub><pmid>32773545</pmid><doi>10.1519/JSC.0000000000003770</doi><tpages>9</tpages></addata></record>
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subjects Acceleration
Adolescent
Athletes
Athletic Performance - physiology
Exercise
Humans
Male
Physical fitness
Resistance Training - methods
Running - physiology
Secondary school students
Strength training
Student athletes
Velocity
title Influence of Resisted Sled-Pull Training on the Sprint Force-Velocity Profile of Male High-School Athletes
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