Critical determinants of combined sprint and endurance performance: An integrative analysis from muscle fiber to the human body

Stephan Van Der Zwaard, Willem J. Van Der Laarse, Guido Weide, Frank W. Bloemers, Mathijs J. Hofmijster, Koen Levels, Dionne A. Noordhof, Jos J. De Koning, Cornelis J. De Ruiter, Richard T. Jaspers

Research output: Contribution to journalArticle

Abstract

Optimizing physical performance is a major goal in current physiology. However, basic understanding of combining high sprint and endurance performance is currently lacking. This study identifies critical determinants of combined sprint and endurance performance using multiple regression analyses of physiologic determinants at different biologic levels. Cyclists, including 6 international sprint, 8 team pursuit, and 14 road cyclists, completed a Wingate test and 15-km time trialto obtain sprint and endurance performance results, respectively. Performancewas normalized to lean body mass2/3 to eliminate the influence of body size. Performance determinants were obtained from whole-body oxygen consumption, blood sampling, knee-extensor maximal force, muscle oxygenation, whole-muscle morphology, and muscle fiber histochemistry of musculus vastus lateralis. Normalized sprint performance was explained by percentage of fast-type fibers and muscle volume (R2 = 0.65; P <0.001) and normalized endurance performance by performance oxygen consumption (Vo2), mean corpuscular hemoglobin concentration, and muscle oxygenation (R2 = 0.92; P < 0.001). Combined sprint and endurance performance was explained by gross efficiency, performance Vo2, and likely by muscle volume and fascicle length (P = 0.056; P = 0.059). High performance Vo2 related to a high oxidative capacity, high capillarization × myoglobin, and small physiologic cross-sectional area (R2 = 0.67; P < 0.001). Results suggest that fascicle length and capillarization are important targets for training to optimize sprint and endurance performance simultaneously.

LanguageEnglish
Pages2110-2123
Number of pages14
JournalFASEB Journal
Volume32
Issue number4
Early online date29 Mar 2018
DOIs
StatePublished - Apr 2018

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Human Body
Muscle
Durability
Muscles
Fibers
Oxygenation
Oxygen Consumption
Oxygen
Erythrocyte Indices
Myoglobin
Quadriceps Muscle
Physiology
Body Size
Knee
Hemoglobins
Blood
Regression Analysis
Sampling

Keywords

  • Muscle architecture
  • Muscle biopsy
  • Oxidative capacity
  • Oxygen transport
  • Skeletal muscle

Cite this

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abstract = "Optimizing physical performance is a major goal in current physiology. However, basic understanding of combining high sprint and endurance performance is currently lacking. This study identifies critical determinants of combined sprint and endurance performance using multiple regression analyses of physiologic determinants at different biologic levels. Cyclists, including 6 international sprint, 8 team pursuit, and 14 road cyclists, completed a Wingate test and 15-km time trialto obtain sprint and endurance performance results, respectively. Performancewas normalized to lean body mass2/3 to eliminate the influence of body size. Performance determinants were obtained from whole-body oxygen consumption, blood sampling, knee-extensor maximal force, muscle oxygenation, whole-muscle morphology, and muscle fiber histochemistry of musculus vastus lateralis. Normalized sprint performance was explained by percentage of fast-type fibers and muscle volume (R2 = 0.65; P <0.001) and normalized endurance performance by performance oxygen consumption (Vo2), mean corpuscular hemoglobin concentration, and muscle oxygenation (R2 = 0.92; P < 0.001). Combined sprint and endurance performance was explained by gross efficiency, performance Vo2, and likely by muscle volume and fascicle length (P = 0.056; P = 0.059). High performance Vo2 related to a high oxidative capacity, high capillarization × myoglobin, and small physiologic cross-sectional area (R2 = 0.67; P < 0.001). Results suggest that fascicle length and capillarization are important targets for training to optimize sprint and endurance performance simultaneously.",
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AU - Levels,Koen

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AU - Jaspers,Richard T.

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AB - Optimizing physical performance is a major goal in current physiology. However, basic understanding of combining high sprint and endurance performance is currently lacking. This study identifies critical determinants of combined sprint and endurance performance using multiple regression analyses of physiologic determinants at different biologic levels. Cyclists, including 6 international sprint, 8 team pursuit, and 14 road cyclists, completed a Wingate test and 15-km time trialto obtain sprint and endurance performance results, respectively. Performancewas normalized to lean body mass2/3 to eliminate the influence of body size. Performance determinants were obtained from whole-body oxygen consumption, blood sampling, knee-extensor maximal force, muscle oxygenation, whole-muscle morphology, and muscle fiber histochemistry of musculus vastus lateralis. Normalized sprint performance was explained by percentage of fast-type fibers and muscle volume (R2 = 0.65; P <0.001) and normalized endurance performance by performance oxygen consumption (Vo2), mean corpuscular hemoglobin concentration, and muscle oxygenation (R2 = 0.92; P < 0.001). Combined sprint and endurance performance was explained by gross efficiency, performance Vo2, and likely by muscle volume and fascicle length (P = 0.056; P = 0.059). High performance Vo2 related to a high oxidative capacity, high capillarization × myoglobin, and small physiologic cross-sectional area (R2 = 0.67; P < 0.001). Results suggest that fascicle length and capillarization are important targets for training to optimize sprint and endurance performance simultaneously.

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