Summary
A group of 18 male high performance track endurance and sprint cyclists were assessed to provide a descriptive training season specific physiological profile, to examine the relationship between selected physiological and anthropometric variables and cycling performance in a 4000-m individual pursuit (IP4000) and to propose a functional model for predicting success in the IP4000. Anthropometric characteristics, absolute and relative measurements of maximal oxygen uptake (\(\dot VO_{2max} \)), blood lactate transition thresholds (Th 1a- and Th an,i), \(\dot VO_2 \) kinetics, cycling economy and maximal accumulated oxygen deficit (MAOD) were assessed, with cyclists also performing a IP4000 under competition conditions. Peak post-competition blood lactate concentrations and acid-base values were measured. Although all corresponding indices of Th1a- and Th an,i occurred at significantly different intensities there were high intercorrelations between them (0.51–0.85). There was no significant difference in MAOD when assessed using a 2 or 5 min protocol (61.4 vs 60.2 ml·kg−1, respectively). The highest significant correlations were found among IP4000 and the following: \(\dot VO_{2max} \) (ml·kg−2/3·min−1; r=−0.79), power output at lactate threshold (\(\dot W_{th_{1a} } \)) (W; r=−0.86), half time of \(\dot VO_2 \) response whilst cycling at 115% \(\dot VO_{2max} \) (s; r=0.48) and MAOD when assessed using the 5 min protocol (ml·kg−1; r=−0.50). A stepwise multiple regression yielded the following equation, which had an r of 0.86 and a standard error of estimate of 5.7 s: IP4000 (s) = 462.9 − 0.366 × 0.306 × (\(\dot W_{th_{1a} } \)) − 0.306 × (MAOD) −0.438 × (\(\dot VO_{2max} \)) where \(\dot W_{th_{1a} } \)is in W, MAOD is in ml·kg−1 and \(\dot VO_{2max} \) is in ml·kg−1·min−1. These results established that these male high performance track endurance cyclists had well-developed aerobic and anaerobic energy systems with \(\dot VO_{2max} \), Th 1a and MAOD being primary important factors in a IP4000. Therefore, it is suggested that these variables should be optimally trained and routinely monitored when preparing track endurance cyclists for competition.
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Craig, N.P., Norton, K.I., Bourdon, P.C. et al. Aerobic and anaerobic indices contributing to track endurance cycling performance. Europ. J. Appl. Physiol. 67, 150–158 (1993). https://doi.org/10.1007/BF00376659
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DOI: https://doi.org/10.1007/BF00376659