2024-04-08T15:19:39+03:00[Europe/Moscow] en true <p>what are the long term adaptations to <strong>heart rate </strong>at <strong>rest</strong> after consistent aerobic endurance training for 4 months</p><p></p><p>there are no changes to the _____ _____ _____ as it is dependent on ____, but ________ _______ decreases during ______</p><p></p><p>this change occurs because a increase in ________, or the amount of stretch on the ventricles after the end of diastole, causing ____________ _______________ on the ______ ventricle and a __________ in sympathetic activity and _________ in parasympathetic activity known as ____________ ________ _______________</p>, <p>what are the long term adaptations to <strong>heart rate </strong>during <strong>exercise</strong> after consistent aerobic endurance training for 4 months</p><p></p><p></p><p>there are no changes to the _____ _____ _____ as it is dependent on ____, but ________ _______ decreases during ______ ____________</p><p></p><p>this change occurs because a increase in ________, or the amount of stretch on the ventricles after the end of diastole, causing ____________ _______________ on the ______ ventricle and a __________ in sympathetic activity and _________ in parasympathetic activity known as ____________ ________ _______________</p>, <p>what are the long term adaptations to <strong>stroke volume </strong>at <strong>rest</strong> after consistent aerobic endurance training for 4 months</p><p>-</p><p>stroke volume increases during _______</p><p>consistent aerobic training or an increase in _________ _________ leads to an increase in the ________ _________ from an increase in ______ ventricular wall thickness through constantly inducing the ________ ___________ ____________ or an ____________ lengthening of the left ventricle and increase in elastic ________ for stronger ___________ejection</p>, <p>what are the long term adaptations to <strong>stroke volume </strong>during <strong>exercise</strong> after consistent aerobic endurance training for 4 months</p><p></p><p>stroke volume increases during ___________, and __________ exercise</p><p>consistent aerobic training or an increase in _________ _________ leads to an increase in the ________ _________ from an increase in ______ ventricular wall thickness through constantly inducing the ________ ___________ ____________ or an ____________ lengthening of the left ventricle and increase in elastic ________ for stronger ___________ejection</p>, <p>what are the long term adaptations to <strong>cardiac output </strong>at <strong>rest</strong> after consistent aerobic endurance training for 4 months</p><p></p><p>Cardiac output at ______ remains ____________ (or may decrease slightly) after endurance training </p><p>this is because _________ ___________ increases with training, but _______ ________ generally decreases at rest and during exercise at a given absolute intensity.</p>, <p>what are the long term adaptations to <strong>cardiac output </strong>during <strong>exercise</strong> after consistent aerobic endurance training for 4 months</p><p></p><p>Cardiac output at _______________ levels of exercise remains __________ (or may decrease slightly) after endurance training </p><p>this is because _________ ___________ increases with training, but _______ ________ generally decreases at rest and during exercise at a given absolute intensity</p><p></p><p>at max exercise, cardiac output ___________ because ______ ______ ______ does not change with fitness, but ________ _________ continues to increase</p>, <p>what are the long term adaptations to <strong>blood pressure </strong>at <strong>rest</strong> after consistent aerobic endurance training for 4 months</p><p></p><p>_________ and _________ blood pressure ___________ at rest</p><p>this is because of a decrease in ____________ ___________ ________ activity leading to a decrease in _______ __________ ___________</p>, <p>what are the long term adaptations to <strong>blood pressure </strong>during <strong>exercise</strong> after consistent aerobic endurance training for 4 months</p><p></p><p></p><p>during max exercise, _________ _________ __________ decreases and _______ _______ _________ increases</p><p></p><p>this is because of a decrease in ___________ ____________ __________ activity leading to a decrease in _________ __________ ___________</p>, <p>what are the long term adaptations to <strong>blood distribution </strong>at <strong>rest</strong> after consistent aerobic endurance training for 4 months</p><p></p><p>Blood flow to active muscles is __________ by endurance training</p><p></p><p><em>This is due to four factors </em></p><p><strong>1.</strong> Increased __________________ of trained _____ _ fibers known as __________ __________ for greater cross-sectional area for ___ ___________</p><p></p><p><strong>2. </strong>Greater opening of existing capillaries known as ___________ __________</p><p><strong>3</strong>. More effective blood flow distribution as ____________ and ____________ become more effective </p><p><strong>4. </strong>Increased ________ _________</p>, <p>what are the long term adaptations to <strong>blood distribution </strong>during <strong>exercise</strong> after consistent aerobic endurance training for 4 months</p><p></p><p>Blood flow to active muscles is __________ by endurance training</p><p></p><p><em>This is due to four factors </em></p><p><strong>1.</strong> Increased __________________ of trained _____ _ fibers known as __________ __________ for greater cross-sectional area for ___ ___________</p><p></p><p><strong>2.</strong> Greater opening of existing capillaries known as ___________ __________</p><p><strong>3.</strong> More effective blood flow distribution as ____________ and ____________ become more effective </p><p><strong>4. </strong>Increased ________ _________</p>, <p>what are the long term adaptations to <strong>oxygen consumption </strong>at <strong>rest</strong> after consistent aerobic endurance training for 4 months</p><p></p><p>VO2 is ___________ at rest </p><p></p>, <p>what are the long term adaptations to <strong>oxygen consumption </strong>during <strong>exercise</strong> after consistent aerobic endurance training for 4 months</p><p></p><p>VO2 is _______________ or ________ ________during submaximal exercise </p>, <p>what are the long term adaptations to <strong>AVO2 difference </strong>at <strong>rest</strong> after consistent aerobic endurance training for 4 months</p><p></p><p>AVO2 difference is _____________ at _____ after endurance training</p>, <p>what are the long term adaptations to <strong>AVO2 difference </strong>during <strong>exercise</strong> after consistent aerobic endurance training for 4 months</p><p></p><p>AVO2 difference __________ during ______________ and ___________ exercise because of a more effective distribution of ________ ________ away from _________ tissues to the ________ tissues and an ___________ ability of active muscles to extract _______</p>, <p>what are the long term adaptations to <strong>breathing rate </strong>at <strong>rest</strong> after consistent aerobic endurance training for 4 months</p><p> </p><p>respiratory rate slightly ____________ at rest</p>, <p>what are the long term adaptations to <strong>breathing rate </strong>during <strong>exercise</strong> after consistent aerobic endurance training for 4 months</p><p></p><p>respiratory rate decreases during _____________ ____________, but increases during ____________ _____________</p>, <p>what are the long term adaptations to <strong>tidal volume </strong>at <strong>rest</strong> after consistent aerobic endurance training for 4 months</p><p></p><p>tidal volume is _______________ at _____ after endurance training because the __________ or basic _______________ of the _________ remains unchanged</p>, <p>what are the long term adaptations to <strong>tidal volume </strong>during <strong>exercise</strong> after consistent aerobic endurance training for 4 months</p><p></p><p>tidal volume slightly ____________ during ___________ exercise and ____________ during ________ exercise as the ___________ demand of any given exercise is the same therefore the body must _____________ to a similar level to meet that ________ through strength adaptations in the ____________ muscles </p>, <p>what are the long term adaptations to <strong>ventilation </strong>at <strong>rest</strong> after consistent aerobic endurance training for 4 months</p><p></p><p>pulmonary ventilation is ______________ at _______ after endurance training because the ____________ or basic _____________ of the ___________ remains unchanged</p>, <p>what are the long term adaptations to <strong>ventilation </strong>during <strong>exercise</strong> after consistent aerobic endurance training for 4 months</p><p></p><p>pulmonary ventilation decreases after endurance training during ______________ ______________ but</p><p>pulmonary ventilation ______________ after endurance training due to increases in both ____________ __________ and ___________ __________ during ____________ ____________</p>, <p>what are the long term adaptations to <strong>EPOC </strong>during <strong>exercise</strong> after consistent aerobic endurance training for 4 months</p><p></p><p>EPOC recovery time ___________ due to adaptations in __________ _________ and increased _________ __________ at the muscle site</p>, <p>VO2max __________ substantially following endurance training, but the extent of increase possible is ____________ limited by ______ and __________ factors in each individual. The major limiting factor appears to be _________ _________ to the _________ __________ stemming from ______ _______, _______ ________, and ___________</p>, <p>blood volume ____________ rapidly with endurance training due to an increase in ____________ __________ like __________ which increases __________ __________ _________ fluid to be reabsorbed resulting in more ________ ________</p>, <p>blood volume _________ rapidly with endurance training due to an increase in ___________ ______ and ______________ for an increased reabsorption of _______ and ________ in the kidneys resulting in more ________ ________</p>, <p>blood volume ________ rapidly with endurance training due an increase in ______ _______ ________</p>, <p>pulmonary diffusion is ________________ at ________ and ______________ _____________</p><p></p><p>Pulmonary diffusion at _________ _________ increases, especially in ______ _________ of the _____ that are not normally _________</p>, <p>an increase in VO2 max following endurance training is the result from improved _________ _________, _________ ________, and _________ ____________</p>, <p>Aerobic training selectively recruits ______ __ muscle fibers and fewer _____ __ fibers. Consequently, the ______ __fibers increase their _______-_________ area with aerobic training</p>, <p>Aerobic training increases both the number of _________ per muscle fiber and the number of ____________for a given cross-sectional area of muscle. These changes improve ________ _________ through the muscles, enhancing the diffusion of __________, _____________, __________, and __________ between the ______ and ________ ________</p>, <p>Aerobic training increases muscle __________ content by as much as 80%. which transports _________ from ____ ___________ to the ______________</p>, <p>Aerobic training increases both the _______ and the _____ of muscle fiber ______________, providing the muscle with an increased capacity for ____________ _____________</p>, <p>Activities of many ___________ enzymes are increased with aerobic training</p>, <p>Lactate threshold increases with ___________ training, allowing performance of _________ exercise intensities without significantly increasing _________ _________ concentration</p>, <p>With endurance training, the RER decreases at ___________ work rates, indicating greater utilization of ____ _____ _____ as an energy substrate, ___________ sparing</p> flashcards
exercise physiology long term adaptations

exercise physiology long term adaptations

  • what are the long term adaptations to heart rate at rest after consistent aerobic endurance training for 4 months

    there are no changes to the _____ _____ _____ as it is dependent on ____, but ________ _______ decreases during ______

    this change occurs because a increase in ________, or the amount of stretch on the ventricles after the end of diastole, causing ____________ _______________ on the ______ ventricle and a __________ in sympathetic activity and _________ in parasympathetic activity known as ____________ ________ _______________

    max heart rate

    age

    heart rate

    rest

    preload

    eccentric hypertrophy

    left

    decrease

    increase

    sinoatrial node remodeling

  • what are the long term adaptations to heart rate during exercise after consistent aerobic endurance training for 4 months

    there are no changes to the _____ _____ _____ as it is dependent on ____, but ________ _______ decreases during ______ ____________

    this change occurs because a increase in ________, or the amount of stretch on the ventricles after the end of diastole, causing ____________ _______________ on the ______ ventricle and a __________ in sympathetic activity and _________ in parasympathetic activity known as ____________ ________ _______________

    max heart rate

    age

    heart rate

    submax exercise

    preload

    eccentric hypertrophy

    left

    decrease

    increase

    sinoatrial node remodeling

  • what are the long term adaptations to stroke volume at rest after consistent aerobic endurance training for 4 months

    -

    stroke volume increases during _______

    consistent aerobic training or an increase in _________ _________ leads to an increase in the ________ _________ from an increase in ______ ventricular wall thickness through constantly inducing the ________ ___________ ____________ or an ____________ lengthening of the left ventricle and increase in elastic ________ for stronger ___________ejection

    rest

    work demand

    heart weight

    left

    frank starling mechanism

    eccentric

    recoil

    ventricular

  • what are the long term adaptations to stroke volume during exercise after consistent aerobic endurance training for 4 months

    stroke volume increases during ___________, and __________ exercise

    consistent aerobic training or an increase in _________ _________ leads to an increase in the ________ _________ from an increase in ______ ventricular wall thickness through constantly inducing the ________ ___________ ____________ or an ____________ lengthening of the left ventricle and increase in elastic ________ for stronger ___________ejection

    submax

    maximal exercise

    work demand

    heart weight

    left

    frank starling mechanism

    eccentric

    recoil

    ventricular

  • what are the long term adaptations to cardiac output at rest after consistent aerobic endurance training for 4 months

    Cardiac output at ______ remains ____________ (or may decrease slightly) after endurance training

    this is because _________ ___________ increases with training, but _______ ________ generally decreases at rest and during exercise at a given absolute intensity.

    rest

    unchanged

    stroke volume

    heart rate

  • what are the long term adaptations to cardiac output during exercise after consistent aerobic endurance training for 4 months

    Cardiac output at _______________ levels of exercise remains __________ (or may decrease slightly) after endurance training

    this is because _________ ___________ increases with training, but _______ ________ generally decreases at rest and during exercise at a given absolute intensity

    at max exercise, cardiac output ___________ because ______ ______ ______ does not change with fitness, but ________ _________ continues to increase

    submaximal

    unchanged

    stroke volume

    heart rate

    increases

    max heart rate

    stroke volume

  • what are the long term adaptations to blood pressure at rest after consistent aerobic endurance training for 4 months

    _________ and _________ blood pressure ___________ at rest

    this is because of a decrease in ____________ ___________ ________ activity leading to a decrease in _______ __________ ___________

    systolic

    diastolic

    decreases

    sympathetic nervous system

    total peripheral resistance

  • what are the long term adaptations to blood pressure during exercise after consistent aerobic endurance training for 4 months

    during max exercise, _________ _________ __________ decreases and _______ _______ _________ increases

    this is because of a decrease in ___________ ____________ __________ activity leading to a decrease in _________ __________ ___________

    diastolic blood pressure

    systolic blood pressure

    sympathetic nervous system

    total peripheral resistance

  • what are the long term adaptations to blood distribution at rest after consistent aerobic endurance training for 4 months

    Blood flow to active muscles is __________ by endurance training

    This is due to four factors

    1. Increased __________________ of trained _____ _ fibers known as __________ __________ for greater cross-sectional area for ___ ___________

    2. Greater opening of existing capillaries known as ___________ __________

    3. More effective blood flow distribution as ____________ and ____________ become more effective

    4. Increased ________ _________

    increased

    capillarization

    type I

    collateral circulation

    gas exchange

    capillary recruitment

    vasoconstriction

    vasodilation

    blood volume

  • what are the long term adaptations to blood distribution during exercise after consistent aerobic endurance training for 4 months

    Blood flow to active muscles is __________ by endurance training

    This is due to four factors

    1. Increased __________________ of trained _____ _ fibers known as __________ __________ for greater cross-sectional area for ___ ___________

    2. Greater opening of existing capillaries known as ___________ __________

    3. More effective blood flow distribution as ____________ and ____________ become more effective

    4. Increased ________ _________

    increased

    capillarization

    type I

    collateral circulation

    gas exchange

    capillary recruitment

    vasoconstriction

    vasodilation

    blood volume

  • what are the long term adaptations to oxygen consumption at rest after consistent aerobic endurance training for 4 months

    VO2 is ___________ at rest

    unchanged

  • what are the long term adaptations to oxygen consumption during exercise after consistent aerobic endurance training for 4 months

    VO2 is _______________ or ________ ________during submaximal exercise

    unchanged

    slightly reduced

  • what are the long term adaptations to AVO2 difference at rest after consistent aerobic endurance training for 4 months

    AVO2 difference is _____________ at _____ after endurance training

    unchanged

    rest

  • what are the long term adaptations to AVO2 difference during exercise after consistent aerobic endurance training for 4 months

    AVO2 difference __________ during ______________ and ___________ exercise because of a more effective distribution of ________ ________ away from _________ tissues to the ________ tissues and an ___________ ability of active muscles to extract _______

    increases

    submaximal

    maximal

    arterial blood

    inactive

    active

    increased

    oxygen

  • what are the long term adaptations to breathing rate at rest after consistent aerobic endurance training for 4 months

    respiratory rate slightly ____________ at rest

    decreases

  • what are the long term adaptations to breathing rate during exercise after consistent aerobic endurance training for 4 months

    respiratory rate decreases during _____________ ____________, but increases during ____________ _____________

    submaximal exercise

    maximal exercise

  • what are the long term adaptations to tidal volume at rest after consistent aerobic endurance training for 4 months

    tidal volume is _______________ at _____ after endurance training because the __________ or basic _______________ of the _________ remains unchanged

    unchanged

    rest

    structure

    physiology

    lungs

  • what are the long term adaptations to tidal volume during exercise after consistent aerobic endurance training for 4 months

    tidal volume slightly ____________ during ___________ exercise and ____________ during ________ exercise as the ___________ demand of any given exercise is the same therefore the body must _____________ to a similar level to meet that ________ through strength adaptations in the ____________ muscles

    increases

    submaximal

    increases

    maximal

    oxygen

    ventilate

    demand

    respiratory

  • what are the long term adaptations to ventilation at rest after consistent aerobic endurance training for 4 months

    pulmonary ventilation is ______________ at _______ after endurance training because the ____________ or basic _____________ of the ___________ remains unchanged

    unchanged

    rest

    structure

    physiology

    lungs

  • what are the long term adaptations to ventilation during exercise after consistent aerobic endurance training for 4 months

    pulmonary ventilation decreases after endurance training during ______________ ______________ but

    pulmonary ventilation ______________ after endurance training due to increases in both ____________ __________ and ___________ __________ during ____________ ____________

    submaximal exercise

    increases

    respiratory rate

    tidal volume

    maximal exercise

  • what are the long term adaptations to EPOC during exercise after consistent aerobic endurance training for 4 months

    EPOC recovery time ___________ due to adaptations in __________ _________ and increased _________ __________ at the muscle site

    decreases

    blood flow

    oxidative metabolism

  • VO2max __________ substantially following endurance training, but the extent of increase possible is ____________ limited by ______ and __________ factors in each individual. The major limiting factor appears to be _________ _________ to the _________ __________ stemming from ______ _______, _______ ________, and ___________

    increases

    endurance

    genetically

    central

    peripheral

    oxygen delivery

    active muscles

    blood volume

    cardiac output

    perfusion

  • blood volume ____________ rapidly with endurance training due to an increase in ____________ __________ like __________ which increases __________ __________ _________ fluid to be reabsorbed resulting in more ________ ________

    increases

    plasma proteins

    albumin

    oncotic blood pressure

    plasma volume

  • blood volume _________ rapidly with endurance training due to an increase in ___________ ______ and ______________ for an increased reabsorption of _______ and ________ in the kidneys resulting in more ________ ________

    increases

    antidiuretic hormone

    aldosterone

    water

    sodium

    plasma volume

  • blood volume ________ rapidly with endurance training due an increase in ______ _______ ________

    increases

    red blood cells

  • pulmonary diffusion is ________________ at ________ and ______________ _____________

    Pulmonary diffusion at _________ _________ increases, especially in ______ _________ of the _____ that are not normally _________

    unchanged

    rest

    submaximal

    maximal intensity

    upper regions

    lungs

    perfused

  • an increase in VO2 max following endurance training is the result from improved _________ _________, _________ ________, and _________ ____________

    cardiac output

    blood flow

    avo2 difference

  • Aerobic training selectively recruits ______ __ muscle fibers and fewer _____ __ fibers. Consequently, the ______ __fibers increase their _______-_________ area with aerobic training

    type I

    type II

    type I

    cross-sectional

  • Aerobic training increases both the number of _________ per muscle fiber and the number of ____________for a given cross-sectional area of muscle. These changes improve ________ _________ through the muscles, enhancing the diffusion of __________, _____________, __________, and __________ between the ______ and ________ ________

    capillaries

    capillaries

    blood perfusion

    oxygen

    carbon dioxide

    nutrients

    metabolites

    blood

    muscle fibers

  • Aerobic training increases muscle __________ content by as much as 80%. which transports _________ from ____ ___________ to the ______________

    myoglobin

    oxygen

    cell membranes

    mitochondria

  • Aerobic training increases both the _______ and the _____ of muscle fiber ______________, providing the muscle with an increased capacity for ____________ _____________

    number

    size

    mitochondria

    oxidative metabolism

  • Activities of many ___________ enzymes are increased with aerobic training

    oxidative

  • Lactate threshold increases with ___________ training, allowing performance of _________ exercise intensities without significantly increasing _________ _________ concentration

    endurance

    higher

    blood lactate

  • With endurance training, the RER decreases at ___________ work rates, indicating greater utilization of ____ _____ _____ as an energy substrate, ___________ sparing

    submaximal

    free fatty acids

    carbohydrate