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Influence of angular velocity and movement frequency on development of fatigue in repeated isokinetic knee extensions

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Summary

Six sedentary students, six orienteers, and six soccer players were each subjected to 15 tests, comprising 120 s of repeated, maximal isokinetic knee extensions. The tests differed with respect to movement velocity (30°·s−1, 120°·s−1, and 300°·s−1), and movement frequency (5 at each velocity). At a certain velocity, a rectilinear relationship was found between muscular performance intensity (expressed either as average power output or as exercise time ratio) and development of fatigue (expressed either as an absolute or as a fractional decline in work output). Significant inter-velocity differences existed between the slopes of these lines at some combinations of performance and fatigue expressions. Only tendencies towards a difference inx-intercept values were found. Thisx-intercept value can be taken as a measure of the greatest attainable intensity level of performance without the development of fatigue. This suggestion is valuable both in basic physiological research, and as a possible criterion for optimization of muscular performance. At a given exercise time ratio, increasing movement velocity produced increasing fatigue. However, at a given muscular power output — above 15 W approximately — fatigue developed to a greater extent at the low velocity than at the two higher ones, which did not differ significantly. Substantial individual variation was seen in the positions of the low-, medium-, and high-velocity lines. These variations did not depend on the training background. This implies that the validity of using single-velocity, single-frequency tests in determining isokinetic endurance is doubtful.

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This work was done as an MD dissertation at the August Krogh Institute, University of Copenhagen, Denmark. All measurements were made at the Institute of Physical Education, University of Odense, Denmark.

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Mathiassen, S.E. Influence of angular velocity and movement frequency on development of fatigue in repeated isokinetic knee extensions. Europ. J. Appl. Physiol. 59, 80–88 (1989). https://doi.org/10.1007/BF02396584

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