5’adenosine monophosphate activated protein kinase (AMPK)
bradycardia
slow heart rate
calciuneurin
CaMK (calmodulin-dependent kinase)
IGF-1/Akt/mTOR signaling pathway
NFκB (nuclear factor kappa B)
overload
PGC-1α (peroxisome proliferator-activated receptor
gamma coactivator 1α)
p38 (mitogen activated kinase p38)
reversibility
specificity
4 primary signals for muscular adpatation to exercise?
Explain the basic principles of training: overload, reversibility, and specificity.
Discuss the role that genetics plays in determining VO2max.
Describe the typical change in VO2 max with endurance-training programs and the effect of the initial (pretraining) value on the magnitude of the increase.
Identify typical VO2 max values for various sedentary, active, and athletic populations.
Understand the contribution of heart rate, stroke volume, and the aVO2 difference in determining VO2 max.
Discuss how training increases VO2max.
Define preload, afterload, and contractility, and discuss the role of each in the increase in the maximal stroke volume that occurs with endurance training.
Describe the changes in muscle structure that are responsible for the increase in the maximal a-VO2 difference with endurance training.
List and discuss the primary changes that occur in skeletal muscle as a result of endurance training.
Explain how “high-intensity” endurance training improves acid-base balance during exercise.
Outline the “big picture” changes that occur in skeletal muscle as a result of exercise training and discuss the specificity of exercise training responses.