The purpose of this study was to investigate the effects of high-intensity interval training (3 days/wk for 5 wk), provoking large changes in muscle lactate and pH, on changes in intracellular buffer capacity (βmin vitro), monocarboxylate transporters (MCTs), and the decrease in muscle lactate and hydrogen ions (H+) after exercise in women. Before and after training, biopsies of the vastus lateralis were obtained at rest and immediately after and 60 s after 45 s of exercise at 190% of maximal O2 uptake. Muscle samples were analyzed for ATP, phosphocreatine (PCr), lactate, and H+; MCT1 and MCT4 relative abundance and βmin vitro were also determined in resting muscle only. Training provoked a large decrease in postexercise muscle pH (pH 6.81)...
Environ. Exercise Physiol. 55(2): 365367,1983.-The purpose of this study was to evaluate the extent ...
Within the context of a metabolic model of fatigue, formulated from a review of theliterature, a dec...
This study investigated the effects of high-intensity training, with or without induced metabolic al...
The purpose of this study was to investigate the effects of high-intensity interval training (3 days...
The regulation of intracellular pH during intense muscle contractions occurs via a number of differe...
and Jens Bangsbo. Effect of high-intensity exercise train-ing on lactate/H1 transport capacity in hu...
We examined changes in muscle buffer capacity (βmin vitro), and the lactate threshold (LT) after 5 w...
International audienceWe have previously reported an acute decrease in muscle buffer capacity (βm in...
Athletic performance relies heavily on the rate of ATP hydrolysis. Traditionally, the accumulation o...
Texte intégral en accès libre http://jap.physiology.org/cgi/content/full/98/3/804The present study i...
Bonen. Training intensity-dependent and tissue-specific in-creases in lactate uptake and MCT-1 in he...
Muscle H+ accumulation may be the primary causal factor in limiting high-intensity exercise (HIE) pe...
The ability to metabolize or tolerate lactate and produce power simultaneously can be an important d...
Ionic regulation is critical to muscle excitation, contraction and metabolism, and thus for muscle f...
Environ. Exercise Physiol. 55(2): 365367,1983.-The purpose of this study was to evaluate the extent ...
Within the context of a metabolic model of fatigue, formulated from a review of theliterature, a dec...
This study investigated the effects of high-intensity training, with or without induced metabolic al...
The purpose of this study was to investigate the effects of high-intensity interval training (3 days...
The regulation of intracellular pH during intense muscle contractions occurs via a number of differe...
and Jens Bangsbo. Effect of high-intensity exercise train-ing on lactate/H1 transport capacity in hu...
We examined changes in muscle buffer capacity (βmin vitro), and the lactate threshold (LT) after 5 w...
International audienceWe have previously reported an acute decrease in muscle buffer capacity (βm in...
Athletic performance relies heavily on the rate of ATP hydrolysis. Traditionally, the accumulation o...
Texte intégral en accès libre http://jap.physiology.org/cgi/content/full/98/3/804The present study i...
Bonen. Training intensity-dependent and tissue-specific in-creases in lactate uptake and MCT-1 in he...
Muscle H+ accumulation may be the primary causal factor in limiting high-intensity exercise (HIE) pe...
The ability to metabolize or tolerate lactate and produce power simultaneously can be an important d...
Ionic regulation is critical to muscle excitation, contraction and metabolism, and thus for muscle f...
Environ. Exercise Physiol. 55(2): 365367,1983.-The purpose of this study was to evaluate the extent ...
Within the context of a metabolic model of fatigue, formulated from a review of theliterature, a dec...
This study investigated the effects of high-intensity training, with or without induced metabolic al...