Training for Aerobic and Anaerobic Power (7) Flashcards
Specificity Principle*
adaptations in metabolic and physiologic functions that depend upon the type and mode of overload imposed
Most effective evaluation of sport-specific performance
measurement most closely simulates the actual activity and/or uses the muscle mass and movement patterns sport requires
overload principle applies to
everyone
how to achieve overload
either manipulate training frequency, intensity, and duration, or combining these factors
SAID principle
Specific adaptions to imposed demands
promotes specific training effects that produce specific performance improvements
Specific overload of short duration induces
specific strength-power adaptions
specific endurance training elicits specific
aerobic system adaptions
overloading specific muscles with endurance training enhances performance and aerobic power by
facilitating O2 transport to ad O2 use by trained muscles
greater blood flow in active tissues results from
increased microcirculation
more effective redistribution of cardiac output
combined effect of both factors
individual differences principle
all individuals do not respond similarly to a given training stimulus
Reversibility Principle
detraining rapidly occurs when terminating a training program
How much detraining reduces both metabolic and exercise capacity
1 or 2 weeks
Important changes that occur with anaerobic power training
- increased levels of anaerobic substrates
- increased quantity and activity of key enzymes that control the anaerobic phase of glucose catabolism
- Two factors increase capacity to generate high levels of blood lactate during all-out exercise
The two factors that increase capacity to generate high levels of blood lactate during all-out exercise
- increased levels of glycogen and glycolytic enzymes
2. improved motivation and tolerance to “pain”
four categories of diverse physiologic and metabolic factors to O2 transport and use
ventilation-aeration
central blood flow
active muscle metabolism
peripheral blood flow
metabolic adapations of training
aerobic training improves capacity for respiratory control in skeletal muscle
endurance trained skeletal muscle fibers contain larger and higher numbers of mitochondira
carbohydrate metabolism adaptions of training
trained muscle exhibits enhanced capacity to oxidize carbohydrate during maximal exercise
Reduced carb as fuel and increased fatty acid combustion in submaximal exercise
training affects heart rate
decreases intrinsic firing rate of SA node pacemaker tissue
submax HR decreases with endurance training
12-15 beats/min
training’s affect on stroke volume
increase during rest and exercise regardless of age or gender