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Aerobic Training Methods
Continuous, Fartlek, Long Interval, Circuit (low intensity), Flexibility
Aerobic Respiratory - Structural
Increased lung size
Aerobic Respiratory - Functional
Increased tidal volume, decreased resting respiratory rate, increased total ventilation (V = TV x RR)
Aerobic Respiratory - Performance Link (P)
Increased O2 uptake, work for longer overall, delay metabolic by-products
Aerobic Cardiovascular - Structural
Increased left ventricle size/cavity, increased stroke volume (rest & exercise), increased blood volume
Aerobic Cardiovascular - Functional
Increased cardiac output (Q = SV x HR) at max, decreased resting heart rate
Aerobic Muscular - Structural
Increased capillarisation of muscle, increased size and number of mitochondria
Aerobic Muscular - Functional
Increased myoglobin, increased glycogen storage, increased oxidative enzyme activity, increased fat and glycogen oxidation
LIP (Lactate Inflection Point) - driven by
Increased mitochondria and increased oxidative enzymes
VO2 Max and LIP with aerobic training
Both increase
Aerobic Performance Outcome
Increased O2 uptake/transport/utilisation, delayed fatigue, ability to work at higher intensities aerobically
Aerobic Energy Substrate Adaptations
Increased mitochondria size/number, increased myoglobin, delayed glycogen depletion, increased fat oxidation
Anaerobic Training Methods
Plyometrics/ballistic stretching, weights/resistance, short or intermediate interval, high work:rest ratio circuit, sprint training
Anaerobic Capacity Components
Speed, power, agility
Anaerobic Cardiovascular - Structural
Increased left ventricle wall thickness (not chamber size)
Anaerobic Cardiovascular - Functional
Increased force of contraction of the heart, increased blood ejected from the heart
Anaerobic Muscular - Structural
Increased muscle size (hypertrophy),