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synaptic transmission: _____ axon terminal, Ca volt gate chann open at terminal, exocytosis of synaptic vesicles with neurotransmitter, nt into synaptic cleft, nt bind ligand gated ion channels on post synaptic and then can ESPS of ISPS
ap at pre synaptic neuron,
synaptic transmission: ap at pre synaptic neuron,_____ Ca volt gate chann open at terminal, exocytosis of synaptic vesicles with neurotransmitter, nt into synaptic cleft, nt bind ligand gated ion channels on post synaptic and then can ESPS of ISPS
axon terminal,
synaptic transmission: ap at pre synaptic neuron, axon terminal,______ exocytosis of synaptic vesicles with neurotransmitter, nt into synaptic cleft, nt bind ligand gated ion channels on post synaptic and then can ESPS of ISPS
Ca volt gate chann open at terminal,
synaptic transmission: ap at pre synaptic neuron, axon terminal, Ca volt gate chann open at terminal, ________, nt into synaptic cleft, nt bind ligand gated ion channels on post synaptic and then can ESPS of ISPS
exocytosis of synaptic vesicles with neurotransmitter
synaptic transmission: ap at pre synaptic neuron, axon terminal, Ca volt gate chann open at terminal, exocytosis of synaptic vesicles with neurotransmitter, ______, nt bind ligand gated ion channels on post synaptic and then can ESPS of ISPS
nt into synaptic cleft
synaptic transmission: ap at pre synaptic neuron, axon terminal, Ca volt gate chann open at terminal, exocytosis of synaptic vesicles with neurotransmitter, nt into synaptic cleft,_______ then can ESPS of ISPS
nt bind ligand gated ion channels on post synaptic and
synaptic transmission: ap at pre synaptic neuron, axon terminal, Ca volt gate chann open at terminal, exocytosis of synaptic vesicles with neurotransmitter, nt into synaptic cleft, nt bind ligand gated ion channels on post synaptic _____
and then can ESPS of ISPS
excitatory depolorize, lead to threshold and generates an action potential in post synaptic neuron
ESPS
inhibitory, does not lead to AP, hyperpolorizes
ISPS
single synapse fires multiple times and gets stronger
temportal summation
greater than or equal to two presnaptic act on one post, can cancel if pre are esps and isps
spatial summation
what is more efficient temporal or spatial summation
temporal
fire together wire together
LTP
strengthens individual synapses
LTP
is LTP induced by spatial or temporal summation
spatial
in long term potentiation,
efficiency incrases…. spatial strengthens into more efficient temporal which is LTP
sensory pathway: ____ transduction, transmission, perception
receptor,
sensory pathway: receptor, _____ transmission, perception
transduction,
sensory pathway: receptor, transduction____ perception
, transmission,
sensory pathway: receptor, transduction, transmission,____
perception
stimulate energy changes to ap in receptor, depolorizes
transduction
sensory neuron carries ap to CNA and can be strengthened
transmission
perception occurs only in the
brain
change of number of neuronal connections
neuronal plasticity
does neuronal plasticity change the number of neurons
no
muscle structure: ____ > muscle fiber cells> myofibrils > sarcomere > filaments
muscle
muscle structure: muscle > ______> myofibrils > sarcomere > filaments
muscle fiber cells
muscle structure: muscle > muscle fiber cells> ____ > sarcomere > filaments
myofibrils
muscle structure: muscle > muscle fiber cells> myofibrils > _____ > filaments
sarcomere
muscle structure: muscle > muscle fiber cells> myofibrils > sarcomere > ___
filaments
filaments include
myosin and actin
thin filament
actin
thick filament
myosin
involuntary, non striated, no t tub, bad sr, slow
smooth muscle
tendon to bone, striated, voluntary, multinuc,
skeletal muscle
heart muscle no motor neiron, self reg control, autorythmic, interclated disks
cardiac muscle
connect heart cells for coordination, decrease need for motor neuron
interclated disks
fluid filled, use pressure, in cnidarians nematodes annelids
hydrostatic skeleton
external nonliving no growth gota shed and build,
exoskeleton
chitinous exoskeleton
arthropod
internal living skeleton, grows and changes,
endoskeleton
endoderms and chordate have
endoskeletons
flexible endoskel chrondocytes and collagen
cartilage
rigid endoskeleton made of collagen and hnydroxyapitate
bone
muscle contractions cost
1 atp per cycle
muscle contraction:_____, motor neuron releases ach, depolorize muscle fiber, t tubules, sarco rec, open voltage gated calcium channel, release calcium, bind to troponin, shift to expose myosin binding sites, cross bridge, power stroke, cross bridge breaks, hydorlyze atp to ADP, myosin back to high energy state
rest
muscle contraction: rest, ____ depolorize muscle fiber, t tubules, sarco rec, open voltage gated calcium channel, release calcium, bind to troponin, shift to expose myosin binding sites, cross bridge, power stroke, cross bridge breaks, hydorlyze atp to ADP, myosin back to high energy state
motor neuron releases ach,
muscle contraction: rest, motor neuron releases ach, ____ t tubules, sarco rec, open voltage gated calcium channel, release calcium, bind to troponin, shift to expose myosin binding sites, cross bridge, power stroke, cross bridge breaks, hydorlyze atp to ADP, myosin back to high energy state
depolorize muscle fiber,
muscle contraction: rest, motor neuron releases ach, depolorize muscle fiber,____ sarco rec, open voltage gated calcium channel, release calcium, bind to troponin, shift to expose myosin binding sites, cross bridge, power stroke, cross bridge breaks, hydorlyze atp to ADP, myosin back to high energy state
t tubules,
muscle contraction: rest, motor neuron releases ach, depolorize muscle fiber, t tubules, ____ open voltage gated calcium channel, release calcium, bind to troponin, shift to expose myosin binding sites, cross bridge, power stroke, cross bridge breaks, hydorlyze atp to ADP, myosin back to high energy state
sarco rec,
muscle contraction: rest, motor neuron releases ach, depolorize muscle fiber, t tubules, sarco rec, _______, release calcium, bind to troponin, shift to expose myosin binding sites, cross bridge, power stroke, cross bridge breaks, hydorlyze atp to ADP, myosin back to high energy state
open voltage gated calcium channel
muscle contraction: rest, motor neuron releases ach, depolorize muscle fiber, t tubules, sarco rec, open voltage gated calcium channel, ______, bind to troponin, shift to expose myosin binding sites, cross bridge, power stroke, cross bridge breaks, hydorlyze atp to ADP, myosin back to high energy state
release calcium
muscle contraction: rest, motor neuron releases ach, depolorize muscle fiber, t tubules, sarco rec, open voltage gated calcium channel, release calcium, _____ shift to expose myosin binding sites, cross bridge, power stroke, cross bridge breaks, hydorlyze atp to ADP, myosin back to high energy state
bind to troponin,
muscle contraction: rest, motor neuron releases ach, depolorize muscle fiber, t tubules, sarco rec, open voltage gated calcium channel, release calcium, bind to troponin,_____, cross bridge, power stroke, cross bridge breaks, hydorlyze atp to ADP, myosin back to high energy state
shift to expose myosin binding sites
muscle contraction: rest, motor neuron releases ach, depolorize muscle fiber, t tubules, sarco rec, open voltage gated calcium channel, release calcium, bind to troponin, shift to expose myosin binding sites,____ power stroke, cross bridge breaks, hydorlyze atp to ADP, myosin back to high energy state
cross bridge,
muscle contraction: rest, motor neuron releases ach, depolorize muscle fiber, t tubules, sarco rec, open voltage gated calcium channel, release calcium, bind to troponin, shift to expose myosin binding sites, cross bridge, ______ cross bridge breaks, hydorlyze atp to ADP, myosin back to high energy state
power stroke,
muscle contraction: rest, motor neuron releases ach, depolorize muscle fiber, t tubules, sarco rec, open voltage gated calcium channel, release calcium, bind to troponin, shift to expose myosin binding sites, cross bridge, power stroke, ________ hydorlyze atp to ADP, myosin back to high energy state
cross bridge breaks,
muscle contraction: rest, motor neuron releases ach, depolorize muscle fiber, t tubules, sarco rec, open voltage gated calcium channel, release calcium, bind to troponin, shift to expose myosin binding sites, cross bridge, power stroke, cross bridge breaks, ______ myosin back to high energy state
hydorlyze atp to ADP,
muscle contraction: rest, motor neuron releases ach, depolorize muscle fiber, t tubules, sarco rec, open voltage gated calcium channel, release calcium, bind to troponin, shift to expose myosin binding sites, cross bridge, power stroke, cross bridge breaks, hydorlyze atp to ADP, _____
myosin back to high energy state
when myosin is in its high energy state its with
ADP
where is myosin binding site
on actin
what blocks myosin binding site while at rest
tropomyosin
allows AP to go down into cell no diffusion and ap gets into sarco reticu
t tubules
what regulates muscle contraction
troponin
troponin and tropomyosin are with
actin
myosin bind actin
cross bridge
when you hydrolyze atp it becomes
adp
digestion: ___, digest, absorb, eliminate
injestion
digestion: injestion, _____, absorb, eliminate
digest
digestion: injestion, digest,___, eliminate
absorb
digestion: injestion, digest, absorb, ______
eliminate
mechanical chem digestion of food, macro to mono
digestion
gets mono into cells
absorption
mouth to anal canal
alimentry canal
feed into allementry system, release juice from salavary glands, pancreas, liver, gallbladder
accessory gland
wave of smooth muscle contraction
peristalsis
circle muscle valves reg passage
sphincters
sphincters: esophogeal, ____, pyloric, illioceal, anal
cardiac
sphincters: esophogeal, cardiac,_____illioceal, anal
pyloric,
sphincters: esophogeal, cardiac, pyloric,____, anal
illioceal
sphincters: esophogeal, cardiac, pyloric, illioceal, ____
anal
food processing: ____, pharynx, epoglottis blocks trachea, open esophogeal, esophagus, cardiac sphincter, stomach, small intestine DJI, large intestine
oral cav
food processing: oral cav, ____, epoglottis blocks trachea, open esophogeal, esophagus, cardiac sphincter, stomach, small intestine DJI, large intestine
pharynx
food processing: oral cav, pharynx,_____ open esophogeal, esophagus, cardiac sphincter, stomach, small intestine DJI, large intestine
epoglottis blocks trachea,
food processing: oral cav, pharynx, epoglottis blocks trachea, _______, esophagus, cardiac sphincter, stomach, small intestine DJI, large intestine
open esophogeal,
food processing: oral cav, pharynx, epoglottis blocks trachea, open esophogeal,_____, cardiac sphincter, stomach, small intestine DJI, large intestine
esophagus
food processing: oral cav, pharynx, epoglottis blocks trachea, open esophogeal, esophagus, _____, stomach, small intestine DJI, large intestine
cardiac sphincter
food processing: oral cav, pharynx, epoglottis blocks trachea, open esophogeal, esophagus, cardiac sphincter, ______, small intestine DJI, large intestine
stomach
food processing: oral cav, pharynx, epoglottis blocks trachea, open esophogeal, esophagus, cardiac sphincter, stomach, ____, large intestine
small intestine DJI
food processing: oral cav, pharynx, epoglottis blocks trachea, open esophogeal, esophagus, cardiac sphincter, stomach, small intestine DJI, ___
large intestine
mechanical digestion
teeth
chem digestion of carbs
in mouth via salivary amylase
respitory dig split
pharynx
cells in stomach
mucus, cheif, parietal
make mucus to protect stomach lining
mucus cells
secrete peptidoglycan which gets activated into pepsin
cheif cells
where is chem dig of protein
stomach
enzyme for chem dig of prot from polypep to AA
pepsin
make HCL
parietal cells