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Temperature regulation pH regulation Fluid balance |
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Overload - have to be working at a higher level than your body is used to Reversibility - How quickly training adaptations are lost Specificity - have to train specifically for what you want to improve (biking not improving running much etc..) Law of initial values - if you start off at a very low fitness you will improve much more than someone who starts out allready very fit. Individual differences principle - Genetic factors effect training effect. |
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Cross secontinal studies - take a sample of the population and look at different characteristics Longitudinal studies - Before and after, follow people for periods of time to observe speed/rate of change etc.. |
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3-5 times a week 20-60 minute session at 50-85% of vo2 max |
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max amount of o2 your body can take in and use measurement of cardiovascular fitness o2, utilize |
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TR has a lower HR at any given submax TR and UT max HR determined by age not by fitness |
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Rest - TR=UT Submax TR is slightly lower than UT Max TR is higher than UT |
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kcal expenditure should be the same at rest and submax assuming the same body weight gender etc... TR should be able to reach a higher Kcal burn due to be able to reach a higher vo2 max |
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False Don't have to know second part |
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EDV, contractility, Afterload |
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Bradycardia slower breathing (I wouldn't stake my life on this one) |
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EDV = the amount of blood left in the ventricles during diastole ESV = amount of blood in ventricles after systole TR increases EDV by increased venous return, increased plasma volume, increased ventricular volume |
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SV/EDVx100%=EF Ejection Fraction indicates what percentage of the end diastolic volume is ejected during ventricular contraction |
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In ET the volume increases with no change in thickness In ST thickness increases |
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Bradycardia is a HR<60 beats per minute Bradycardia results in the heart filling more per beat Results in a higher end diastolic volume and a higher SV |
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Capillary density Slows the speed of blood flow decreases the distance O2 has to defuse |
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Rapid decrease in SV due to rapid decrease in Plasma Volume This also results in a decrease in Cardiac output and vo2 max HR max does not decrease with training True (I think) |
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Biochemical changes 1. Increased capillary density 2. Increased myoglobin 3. Increased Mitochondria 4. Increased vasodilation due to increased Plasma volume |
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Cytoplasm - glycolysis Mitochondria - v oxidation, Krebs cycle, ETC. Glycolysis is anaerobic the rest are aerobic |
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The over all effect on these factors with ET is to increase them |
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ET results in an increased rate of shuttling NADH into the mitochondria this is important because otherwise NADH will be recycled back into NAD via the formation of Lactic Acid ET also increases the concentration of the forme Lactat dehydrogenase that catalyzes the conversion of Lactate into pyruvate. |
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ET increases the rate of citrate production, and other enzymes |
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