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运动测试对运动表现预测的意义:当代视角

Implications of exercise testing for prediction of athletic performance: a contemporary perspective.

作者信息

Noakes T D

机构信息

Department of Physiology, University of Cape Town Medical School, Observatory, South Africa.

出版信息

Med Sci Sports Exerc. 1988 Aug;20(4):319-30. doi: 10.1249/00005768-198808000-00001.

DOI:10.1249/00005768-198808000-00001
PMID:3050352
Abstract

One of the most fundamental beliefs in exercise physiology is that performance during maximum exercise of short duration is limited by the inability of the heart and lungs to provide oxygen at a rate sufficiently fast to fuel energy production by the active muscle mass. This belief originates from work undertaken in the 1920's by Hill and Lupton. A result is that most, if not all, of the studies explaining the effects of exercise training or detraining or other interventions on human physiology explain these changes in terms either of central adaptations increasing oxygen delivery to muscle or of peripheral adaptations that modify the rates of oxygen or fuel utilization by the active muscles. Yet a critical review of Hill and Lupton's results shows that they inferred but certainly did not prove that oxygen limitation develops during maximal exercise. Furthermore, more modern studies suggest that, if such an oxygen limitation does indeed occur during maximal exercise, it develops in about 50% of test subjects. Thus, an alternative mechanism may need to be evoked to explain exhaustion during maximal exercise in a rather large group of subjects. This review proposes that the factors limiting maximal exercise performance might be better explained in terms of a failure of muscle contractility ("muscle power"), which may be independent of tissue oxygen deficiency. The implications for exercise testing and the prediction of athletic performance are discussed.

摘要

运动生理学中最基本的观点之一是,短时间最大强度运动时的表现受限于心肺无法以足够快的速度提供氧气,从而无法为活跃的肌肉群产生能量提供燃料。这一观点源于20世纪20年代希尔和卢普顿所做的研究。结果是,大多数(如果不是全部的话)解释运动训练、停训或其他干预对人体生理学影响的研究,都是从增加向肌肉输送氧气的中枢适应或改变活跃肌肉利用氧气或燃料速率的外周适应方面来解释这些变化的。然而,对希尔和卢普顿研究结果的批判性回顾表明,他们只是推断而非证实了最大强度运动期间会出现氧气限制。此外,更多现代研究表明,如果最大强度运动期间确实出现这种氧气限制,那么大约50%的受试者会出现这种情况。因此,可能需要引入另一种机制来解释相当一部分受试者在最大强度运动时的疲劳。本综述提出,限制最大强度运动表现的因素或许可以更好地用肌肉收缩力(“肌肉力量”)的衰竭来解释,这可能与组织缺氧无关。文中还讨论了对运动测试和运动表现预测的影响。

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