quiz 4 Flashcards

1
Q

adaption

A

physiologic change to accomodate a stress

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2
Q

resistance training overload

A

larger muscle = stronger muscles and stronger muscles = stronger bones

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3
Q

endurance training overload

A

burn more fat in muscle, better O2 delievery from lungs to mitochondria

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3
Q

principle of specificity

A

exercises must be specific to sport or training

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4
Q

perturbation of homeostasis

A

adding stress will cause change

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4
Q

removing the stress will cause

A

a reversal of change (use it or lose it)

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4
Q

wolffs law

A

a muscle wil only be as strong as it needs to be

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4
Q

muscle hypertrophy

A

muscle gets bigger and minimizes new stress

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4
Q

what does unloading do unloading

A

inhibits mTOR and protein synthesis (atrophy)

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5
Q

loading stimulates

A

MTOR and protein synthesis (atrophy)

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6
Q

training to increase aerobic capacity =

A

increase in mito

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6
Q

training to increase anaerobic capacity

A

PCr and glycolysis contine to increase mito

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7
Q

training to increase strength/hypertrophy

A

increase accural of muscle protein

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8
Q

strength and hypertrophy of muscle increase these proteins

A

actin, myosin, troponin, tropomyosin and titin

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9
Q

increase of protein =

A

increase in stimulation of transcription and translation

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10
Q

transcription starts in the

A

nucleus where the DNA is

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11
Q

RNA polymerese in transcription

A

enzyme that unzips DNA and copies it

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12
Q

translation takes mRNA

A

and transports it to the cytosol

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12
Q

mRNA

A

copy of DNA

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12
Q

tRNA

A

brings amino acids to be the work bench

12
Q

ribosome

A

work bench - protein synthesis

13
Q

protein

A

string of amino acids

14
Q

translation

A

brings mRNA from transcription and transports it into the cytosol and then tRNA and brings amino acids to ribosome to creates proteins

15
Q

an athlete becomes trained by

A

training stress stimulus –> which triggers mechanical loading and increase in NAD, AMP, CA
-Stress stimulates pathwys like mTOR, SIRT 1, AMPK, PGC-1o
-pathways increase transcription and translation which increases proteins
-if you accumalte enough protein = adaption

16
Q

AMP is low and atp is high at

A

rest

17
Q

high intensity =

A

AMP and ADP is high and ATP is low

18
Q

NAD increases more in

A

high intensity conditions

19
Q

ROS increase

A

nitric oxid and superoxide

20
Q

transcription

A

makes RNA in nucleus and transport mRNA in cytoplasm

21
Q

factors that trigger cascade

A
  1. stretch and tension
  2. Ca ions and presence
  3. cellular energy status -AMP/ATP , NAD/NADH, ROS
22
Q

pathways use molecules to cause and effect

A

enzymes - mTOR, SIRT 1, AMPK
transcription factors - PGC-1a

23
Q

mechanical loading is stimulated by

A

stretch and tension

24
Q

anabolic pathway cascade

A

muscle hypetrophy and mechanical loading

25
Q

catabolic pathway cascade

A

stress removal (muscle atrophy)
and mechanical unloading
and inhibiting T and T

26
Q

Ca trigger

A

CAMK, and PGC-1a and AMPK

27
Q

when PGC-1a is stimulated we see

A

mitochondrial biogenesis, and angiogenesis

28
Q

high intensity training

A

increase in AMP and ATP, AMPk and Pgc-1a and (NAD but not as big of a change)

29
Q

continous training long duration

A

decrease AMP but increase in NAD and NADH, SIRT-1 and PGc-1a

30
Q

ROS increases in what type of training

A

high intensity

31
Q

increase of mitochondria =

A

greater metabolic flexibilty

32
Q

leucine

A

BCAA and stimulates mTOR on its own

33
Q

low muscle glycogen (training low)

A

low glycogen stimulates AMPK, stimulates mitochondrial biogenesis, increase in metabolic flexibility

34
Q

supplemental antioxidants

A

neutralize ROS/ free radicals

35
Q

triggers for adaption and performance

A
  1. training program- high, moderate, low
  2. nutrition - balanced diet, supplementation, nutrient limiting
36
Q

protein timing

A

after workout

37
Q

anti-trigger

A

training low
AMPK inhibits mTOR

38
Q

to minimize anti-trigger you need

A

high CHO availablity

39
Q
A