School of Physical Education and Sport Science, National and Kapodistrian University of Athens, Athens, Greece.
Department of Physical Education and Sport Science at Serres, Aristotle University of Thessaloniki, Thessaloniki, Greece.
Eur J Sport Sci. 2021 May;21(5):705-713. doi: 10.1080/17461391.2020.1765026. Epub 2020 May 25.
The aim of the present study was to investigate the effect of priming exercise on Wingate performance and fatigue.
Twelve recreationally active young male volunteers participated in the study (age: 25 ± 5 years; weight: 75.0 ± 7.5 kg; height: 177 ± 6 cm; BMI: 24.0 ± 1.7). During a first visit, participants performed a typical test and a supramaximal assessment of on a cycle ergometer, while during the next three visits, the participants performed in a random order a Wingate test (i) with no priming exercise, (ii) after priming exercise followed by a 15-min recovery (Priming15) and (iii) after priming exercise followed by a 30-min recovery (Priming30). Priming exercise lasted 6 min, at work rate corresponding to the gas exchange threshold (GET) plus 70% of the difference between the GET and .
The Priming 30 condition exhibited greater peak power output (595 ± 84 W) compared to the control (567 ± 85 W) and the Priming15 condition (569 ± 95 W) ( < .05). Regarding fatigue index, a tendency towards increased resistance to fatigue was observed in the Priming30 condition compared to the control and the Priming15 conditions ( = .072). Pre-Wingate lactate levels were found to be significantly different between the Priming15 (7.18 ± 3.09 mmol/L) and the Priming30 (4.87 ± 2.11 mmol/L) conditions ( < .05).
Priming exercise of high intensity followed by a prolonged recovery leads to increased peak power in a subsequent Wingate test. Moreover, our data are consistent with the idea that a priming exercise-induced modest increase in blood lactate concentration at the onset of the following criterion bout is a key factor of performance.
本研究旨在探讨预热运动对 Wingtate 表现和疲劳的影响。
12 名有经验的年轻男性志愿者参与了这项研究(年龄:25±5 岁;体重:75.0±7.5kg;身高:177±6cm;BMI:24.0±1.7)。在第一次访问期间,参与者在自行车测力计上进行了典型的测试和最大强度评估,而在接下来的三次访问中,参与者以随机顺序进行了 Wingtate 测试(i)没有预热运动,(ii)预热运动后进行 15 分钟恢复(预热 15 分钟),(iii)预热运动后进行 30 分钟恢复(预热 30 分钟)。预热运动持续 6 分钟,工作率对应于气体交换阈值(GET)加上 GET 和之间差值的 70%。
预热 30 分钟条件下的峰值功率输出(595±84W)明显高于对照(567±85W)和预热 15 分钟条件(569±95W)(<0.05)。关于疲劳指数,在预热 30 分钟条件下观察到对疲劳的抵抗力有增加的趋势,与对照和预热 15 分钟条件相比(=0.072)。预 Wingtate 乳酸水平在预热 15 分钟(7.18±3.09mmol/L)和预热 30 分钟(4.87±2.11mmol/L)条件之间存在显著差异(<0.05)。
高强度的预热运动后进行长时间的恢复会导致随后的 Wingtate 测试中峰值功率增加。此外,我们的数据与以下观点一致,即随后的标准回合开始时,预热运动引起的血液乳酸浓度适度增加是性能的关键因素。