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Impact Of A Submaximal Warm-Up On Endurance Performance In Highly Trained And Competitive Male Runners

Michael C Zourdos, Caleb D Bazyler, Edward Jo, A. V. Khamoui, Bong-Sup Park, S. Lee, L. Panton, J. Kim
Published 2017 · Medicine

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Purpose: The purpose of this investigation was to examine the effects of a submaximal running warm-up on running performance in male endurance athletes (n = 16, Mage = 21 ± 2 years, MVO2max = 69.3 ± 5.1 mL/kg/min). Method: Endurance performance was determined by a 30-min distance trial after control and submaximal running warm-up conditions in a randomized crossover fashion. The warm-up began with 5 min of quiet sitting, followed by 6 min of submaximal running split into 2-min intervals at speeds corresponding to 45%, 55%, and 65% maximal oxygen consumption (VO2max). A 2-min walk at 3.2 km/hr concluded the 13-min warm-up protocol. For the control condition, participants sat quietly for 13 min. VO2 and heart rate (HR) were determined at Minutes 0, 5, and 13 of the pre-exercise protocol in each condition. Results: At the end of 13 min prior to the distance trial, mean VO2 (warm-up = 14.1 ± 2.2 mL/kg/min vs. control = 5.5 ± 1.7 mL/kg/min) and mean HR (warm-up = 105 ± 11 bpm vs. control = 67 ± 11 bpm) were statistically greater (p < .001) in the warm-up condition compared with the control condition. The distance run did not statistically differ (p = .37) between the warm-up (7.8 ± 0.5 km) and control (7.7 ± 0.6 km) conditions; however, effect size calculation revealed a small effect (d = 0.2) in favor of the warm-up condition. Thus, the warm-up employed may have important and practical implications to determine placing among high-level athletes in close races. Conclusions: These findings suggest a submaximal running warm-up may have a small but critical effect on a 30-min distance trial in competitive endurance athletes. Further, the warm-up elicited increases in physiological variables VO2 and HR prior to performance; thus, a submaximal specific warm-up should warrant consideration.
This paper references
Aerobic performance is degraded, despite modest hyperthermia, in hot environments.
B. Ely (2010)
Effects of Static Stretching on Energy Cost and Running Endurance Performance
J. Wilson (2010)
Effect of fluid intake volume on 2-h running performances in a 25 degrees C environment.
H. N. Daries (2000)
Recombination processes in doubly capped antimonide-based quaternary thin films
S. Saroop (1999)
No effect of 5% hypohydration on running economy of competitive runners at 23 degrees C.
L. Armstrong (2006)
Tympanic temperature and heart rate changes in firefighters during treadmill runs performed with different fireproof jackets
F. Ftaiti (2001)
Effects of Dynamic Stretching on Energy Cost and Running Endurance Performance in Trained Male Runners
Michael C Zourdos (2012)
Statistical Power Analysis for the Behavioral Sciences (2nd ed.)
P. Lachenbruch (1989)
The effects of pre-warming on the metabolic and thermoregulatory responses to prolonged submaximal exercise in moderate ambient temperatures
W. Gregson (2002)
No Effect of 5% Hypohydration on Running Economy of Competitive Runners at 23°C
L. E. Armstrong (2006)
Effect of warm-up on running performance.
A. Grodjinovsky (1970)
Statistical Power Analysis for the Behavioral Sciences
J. Cohen (1969)
Generalized equations for predicting body density of men.
A. Jackson (1978)
Effects of Warming-up on Physical Performance: A Systematic Review With Meta-analysis
A. Fradkin (2010)
Effect of warm-up on cycle time trial performance.
Amanda Hajoglou (2005)
The effects of moderate prior exercise and varied rest intervals upon cardiorespiratory endurance performance.
W. D. Andzel (1978)
Warming-Up and Stretching for Improved Physical Performance and Prevention of Sports-Related Injuries
F. Shellock (1985)
Effect of fluid intake volume on 2-h running performances in a 25°C environment
H. N. Daries (2000)
Effect of Warm-Up upon Physical Performance in Selected Activities
H. L. Thompson (1958)
Prior exercise and endurance performance: a test of the mobilization hypothesis.
W. D. Andzel (1976)
Effects of warm-up and precooling on endurance performance in the heat
S. Ückert (2007)
Explosive‐strength training improves 5‐km running time by improving running economy and muscle power
L. Paavolainen (1999)
Metabolic and physiological responses of college females to prior exercise, varied rest intervals and a strenuous endurance task.
W. D. Andzel (1982)
Diurnal variation in cycling performance: Influence of warm-up
G. Atkinson (2005)
Warm Up II Performance Changes Following Active Warm Up and How to Structure the Warm Up
D. Bishop (2003)
Improvement of 800-m running performance with prior high-intensity exercise.
S. Ingham (2013)

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