Methods to Determine Aerobic Endurance
- 1 January 2002
- journal article
- review article
- Published by Springer Nature in Sports Medicine
- Vol. 32 (11) , 675-700
- https://doi.org/10.2165/00007256-200232110-00002
Abstract
Physiological testing of elite athletes requires the correct identification and assessment of sports-specific underlying factors. It is now recognised that performance in long-distance events is determined by maximal oxygen uptake (.VO2max), energy cost of exercise and the maximal fractional utilisation of.VO2max in any realised performance or as a corollary a set percentage of.VO2max that could be endured as long as possible. This later ability is defined as endurance, and more precisely aerobic endurance, since.VO2max sets the upper limit of aerobic pathway. It should be distinguished from endurance ability or endurance performance, which are synonymous with performance in long-distance events. The present review examines methods available in the literature to assess aerobic endurance. They are numerous and can be classified into two categories, namely direct and indirect methods. Direct methods bring together all indices that allow either a complete or a partial representation of the power-duration relationship, while indirect methods revolve around the determination of the so-called anaerobic threshold (AT). With regard to direct methods, performance in a series of tests provides a more complete and presumably more valid description of the power-duration relationship than performance in a single test, even if both approaches are well correlated with each other. However, the question remains open to determine which systems model should be employed among the several available in the literature, and how to use them in the prescription of training intensities. As for indirect methods, there is quantitative accumulation of data supporting the utilisation of the AT to assess aerobic endurance and to prescribe training intensities. However, it appears that: (i) there is no unique intensity corresponding to the AT, since criteria available in the literature provide inconsistent results; and (ii) the non-invasive determination of the AT using ventilatory and heart rate data instead of blood lactate concentration ([La- ]b) is not valid. Added to the fact that the AT may not represent the optimal training intensity for elite athletes, it raises doubt on the usefulness of this theory without questioning, however, the usefulness of the whole [La- ]b-power curve to assess aerobic endurance and predict performance in long-distance events.Keywords
This publication has 221 references indexed in Scilit:
- A 3-parameter critical power modelErgonomics, 1996
- A method for determining the maximal steady state of blood lactate concentration from two levels of submaximal exerciseEuropean Journal of Applied Physiology, 1994
- Relationship between blood lactate and excess CO2in elite cyclistsJournal of Sports Sciences, 1991
- They-intercept of the critical power function as a measure of anaerobic work capacityErgonomics, 1991
- The accuracy of the critical power test for predicting time to exhaustion during cycle ergometryErgonomics, 1989
- A comparison between methods of measuring anaerobic work capacityErgonomics, 1988
- STATISTICAL METHODS FOR ASSESSING AGREEMENT BETWEEN TWO METHODS OF CLINICAL MEASUREMENTThe Lancet, 1986
- Endurance Training, V̇O2max, and OBLA: A Longitudinal Study of Two Different Age Groups*International Journal of Sports Medicine, 1984
- Physiologic and Anthropometric Factors Underlying Endurance Performance in ChildrenInternational Journal of Sports Medicine, 1984
- Determination of Anaerobic Threshold by the Ventilation Equivalent in Normal IndividualsRespiration, 1979