Chapter 5: adaptations to anaerobic training programs Flashcards
Primary metabolic demands of sport (phosphogen, glycolytic, aerobic): football
h,m,l
Primary metabolic demands of sport (phosphogen, glycolytic, aerobic): archer
h,l,-
Primary metabolic demands of sport (phosphogen, glycolytic, aerobic): baseball
h,l,-
Primary metabolic demands of sport (phosphogen, glycolytic, aerobic): basketball
h,mod to high, low
Primary metabolic demands of sport (phosphogen, glycolytic, aerobic): boxing
h, h, m
Primary metabolic demands of sport (phosphogen, glycolytic, aerobic): fencing
h, m, -
Primary metabolic demands of sport (phosphogen, glycolytic, aerobic): field events
h, -, -
Primary metabolic demands of sport (phosphogen, glycolytic, aerobic): field hockey
h, m, m
Primary metabolic demands of sport (phosphogen, glycolytic, aerobic): golf
h, -, -
Primary metabolic demands of sport (phosphogen, glycolytic, aerobic): gymnastics
h, m, -
Primary metabolic demands of sport (phosphogen, glycolytic, aerobic): ice hockey
h, m, m
Primary metabolic demands of sport (phosphogen, glycolytic, aerobic): lacrosse
h, m, m
Primary metabolic demands of sport (phosphogen, glycolytic, aerobic): marathon running
l, l, h
Primary metabolic demands of sport (phosphogen, glycolytic, aerobic): MMA
h, h, m
Primary metabolic demands of sport (phosphogen, glycolytic, aerobic): powerlifitng
h, l, -
Primary metabolic demands of sport (phosphogen, glycolytic, aerobic): rowing
l, m, h
Primary metabolic demands of sport (phosphogen, glycolytic, aerobic): cross-country
l, l, h
Primary metabolic demands of sport (phosphogen, glycolytic, aerobic): downhill skiing
h, h, m
Primary metabolic demands of sport (phosphogen, glycolytic, aerobic): soccer
h, m, m
Primary metabolic demands of sport (phosphogen, glycolytic, aerobic): strongman
h, mod to high, -
Primary metabolic demands of sport (phosphogen, glycolytic, aerobic): short distance swimming
h, m, -
Primary metabolic demands of sport (phosphogen, glycolytic, aerobic): long distance swimming
l, m, h
Primary metabolic demands of sport (phosphogen, glycolytic, aerobic): tennis
h, m, l
Primary metabolic demands of sport (phosphogen, glycolytic, aerobic): sprints
h, m, -
Primary metabolic demands of sport (phosphogen, glycolytic, aerobic): middle distance run
h, h, m
Primary metabolic demands of sport (phosphogen, glycolytic, aerobic): long distance run
-, m, h
ulPrimary metabolic demands of sport (phosphogen, glycolytic, aerobic): ultra-endurance
-, -, h
Primary metabolic demands of sport (phosphogen, glycolytic, aerobic): volleyball
h, m, -
Primary metabolic demands of sport (phosphogen, glycolytic, aerobic): weightlifting
h, h, m
Primary metabolic demands of sport (phosphogen, glycolytic, aerobic): wrestling
h, m, l
Physiological adaptations to resistance training: muscular strength
increase
Physiological adaptations to resistance training: muscular endurance
increase for high power output
Physiological adaptations to resistance training: aerobic power
no change or slight increase
Physiological adaptations to resistance training: anaerobic power
increase
Physiological adaptations to resistance training: rate of force production
increases
Physiological adaptations to resistance training: vertical jum
increases
Physiological adaptations to resistance training: sprint speed
improves
Physiological adaptations to resistance training: fiber cross-sectional area
increases
Physiological adaptations to resistance training: capillary density
no change or decreases
Physiological adaptations to resistance training: mitochondrial density
decreases
Physiological adaptations to resistance training: myofibrillar density
no change
Physiological adaptations to resistance training: myofibirllar volume
increases
Physiological adaptations to resistance training: cytoplasmic density
increases
Physiological adaptations to resistance training: myosin heavy change protein
increases
Physiological adaptations to resistance training: creatine phosphokinase
increases
Physiological adaptations to resistance training: myokinase
increases
Physiological adaptations to resistance training: phosphofructokinase
increases
Physiological adaptations to resistance training: lactate dehydrogenase
variable
Physiological adaptations to resistance training: sodium-potassium ATPase
increases
Physiological adaptations to resistance training: stored ATP
increase
Physiological adaptations to resistance training: stroed creatine phosphate
increases
Physiological adaptations to resistance training: stored glycogen
increases
Physiological adaptations to resistance training: stored triglycerides
may increase
Physiological adaptations to resistance training: ligament strength
may increase
Physiological adaptations to resistance training: tendon strength
may incraese
Physiological adaptations to resistance training: collagen content
may increase
Physiological adaptations to resistance training: bone density
no change or increase
Physiological adaptations to resistance training: %body fat
decreases
Physiological adaptations to resistance training: fat-free mass
increases
increasing the angle of pennation has this effect
increases strength
This type of over training is though to develop before this type
sympathetic
parasympathetic
this type of over training does not appear to alter resting concentrations of hormones
intensity-related
3 types of overtraining from least to most sever
overreaching (functional overreaching) nonfunctional overreaching overtraining syndrome (OTS)
this type of OTS includes increased sympathetic activity at rest
sympathetic
this type of OTS includes increases parasympatic activity at rest
parasympathetic