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167 Cards in this Set

  • Front
  • Back

dravet syndrome

epilepsy due to disorder in ion channels

kcnq2 channelpathy

diseased caused by m-channel suppresion (ion channel)

vesillude

opening to outside (ion channel)

speed of carrier vs ion channel

slow and ez to change vs fast harder to controll

occlusion cite

part of alternating access model of transport protein, conformation were solute isnt accecable inside or outside

Na/K pump

atp to attach 3Na-->atp for conformation change to outside-->Na off outside K on


Net: 2K into cell, 3Na outside cell

primary trans

direct use of atp for active trans

secondary trans

other solutes concentration drives movement via antiport or symport

parkinson/hemiglegin

pump not working right, slow deterioration vs fast onset

glucose/na trans

symport: Na and glucose come inside cell


-requires na/k pump to bring back to equilibrium

exchange epithelia

single layer with pores

transport epithelia


+location

controll in/out flow


-kidney, exocrine glands


transport epithelia structure


+shape

apical and basolateral membrane with tight junctions (everything has to go transcellularly)


-columnar or cuboidal

ciliated epithelia strucutre


+shape


+found

microvilli or cilia on columnar epithelia


-columbar or cuboidal


-uterus, trachea, nose

secretory epithelia


+shape


mucus, glands, endocrine, exocrine


-columnar epithelial, 1+ layers


merocrine

secretion via vesicular exogenesis

apocrine

cytoplasm and secretant secreted together

holocrine

entire cell lost, cell burst and released

sebacious gland

on hair follicle release sebum (oil) via holocrine extrection

subcontanious layer

fat cells under skin

basement membrane


+composition

bottom of epithelial tissue, comprised of collogen, laminea, proteoglycan

layers of skin

apical surface>epithelia>basement membrane( basal lamina>reticular lamina)>connective tissue

reticular lamina

reticular fiber, fibronectin, glycoproteins (part of basal membrane)

tight junction

adhesian belt, prevents movent of H2O around cells

adhering junction


+composition

gives support to cells by encircling them


actin filiments

zonula adherans

adhering junciton aka

desmosomes


+types

dont encircle, tie cells together so no lateral movement


-button desmosomes (allow bending )


-hemidesmosomes=binds cell to basal lamina

macula adherans

aka desmosomes

gap junction


+2

allow rapid communication among cells for cell growth, elictical, embiotic, tissue homeostasis


controlled via calcium

shape of exchange epithelia


+location


+features

flattene/ one cell layer


-lungs, vessals


-pores prevent ez passage of materials

protective epithelia


+shape


+found


+feature

protection


-flattened surface deeper more polygonal, multi layer


-skin and cavities


-connected via desmosomes

portien secreting secratory epithelia vs steriod secreting

protien=extensive RER


steriod=extensive SER

ground substance

protein and carbs with salt and water

EDS syndrom

too much collogen in bones results in too much flexibility

FOP disease

bone growth unchecked with stem cells


repair causes bone growth

areolar ct


+structure

underneath all epithelium


-no organizes structure, mix of colagen,reticular and ellastic fiber

reticular ct

supports other types of cells, contains type 3 collagen, high levels of reticular fiber


-skeleton like properties of support

fibroblasts

cell that synthesizes reticular fiber

loose ct

areolar, adipose, reticular ct


-less fiber with more ground substance

reticular cells

fibroblasts that form reticular fiber in retiuclar ct

adipose ct


+2 types

brown=infants for temp reg, multi layer droplets


white=pids droplets huge and still within cell

fluid ct

erythrocytes leukeocytes, platelets, plasma

dence ct

more fiberous, tendons, ligaments


-regular, irregular, illastic

regular ct

tendons, denselly packed cartilage with fibroblasts and low ground substance

irregular ct

collogen fibers, fibroblasts, more ground substance

elastic ct

branched elastic fibers, fibroblasts, stretch under tension

supporting ct

carilage and bone

cartilage ct

hyaline, firbocartilage, elastic

nervous tissue

nuerons and neuroglia

nueroglia

support nuerons change properties of nuerons via chemicals

epithelia ecm

minimal ecm

ct ecm

extensive ground fiber

cartilage feature

avascular

muscle tissue ecm

minimal external lamina (ECM)

nervous tissue ecm

minimal external lamina ECM

metaplasia

change in cell to something else (change cell type with smoker)

neoplasia

uncontrolled cell growth-cancer

apoptosis initiated by

cytochrome c in mitochondria

hyperplausia

inc in cell without change muslce size -->steroids

coronal

left and right ear plane


-seperates posteriour/antiriour

sagittal

nose and belly button


-seperates right and left

midsagittal

nose and belly button


-seperates left from right into equal halfes

transverse plane

divides body into superior inferiuor parts


cut along waist

hematoposis

blood cell production in bone

modulus

graph of strain=x, stress=y

elastic region

linear relat of stress vs strain before yield point

plastic region

nonlinear relat with increasing stress per unit strain past yield point

hysterosis

force applied to plastic region. when force reduced orginal shape is lost

stiffness

slope of stress vs strain, flatter=more flexible

brittle

little plastic region before failure

strain

change in height/orginal height of bone

ductile

high plastic region before failure, opposite of brittle, ex. metals

touchness

high total energy before failure

anisotrophy

material with different properteis when weight is applied at diff angles --bone

viscoelastic

both viscosity and elastic, strenth varies from diff speed of loading

osseus bone

bone tissue (includes spongy and compact)

canaliculi


+function

ssified channels in compact bone from lucunae (houses osteocyte) to center


+communication with other cells, exchange N waste, co2, 02

central canal

hole in center to allow for blood flow and nerves adn communication with canaliculi-->osteocytes

lamella

concentric layers of bone around central canal

lucunae

house of osteocyte

ca in bone called

hydrooxyapetite

cortical

=compact bone

trabecullar

=cancellous, spongy boe

structure of spongy bone

has order, latticed

osteoprogenitor cell

turns into osteoblasts, first part of its developement

osteoblast

form bone matrix and some become osteocytes if they stay encased in bone lucunae

osteocyte

maintain bone in matrix

osteoclast


+structure

opposite of osteoblast, rebsorbs bone tissue


-ruffled border="tentacles" for scrubbin gbone with hcl

chondroblasts

make cartilage, form ecm which i scartilage, form chondrocytes if embedded in cartilagenous matrix

interstitial growth

growth from within cartilage (chondrocytes) chondrocytes divide in lucunae and produce more ecm once grown

appostional growth

chondrocytes) stem cells from perichondrium divide-->chondroblast-->chondrocytes produce ecm of catilage-->turn in chondrocytes

damage to hyaline cartilage-->

replaced with scar tissue fibrocatilage


-limited repair due to lack of blood supply

ossification

transformation of tissue to bone

intramembrious ossification


+steps (4)

used by flat bones of skull,clavicle, mandible, development system of bone


Step 1: ossification of center from osteobasts in mesenchyme


Step 2: osteoid undergoes calcification


Step 3:woven primary bone+surrounding perosteum form


Step 4: lamellar (secondary bone) replace woven primary bone-->strong and compact bone form

lamallar vs woven bone

lamallae and organized parallely vs scattered

endochondrial ossification


+steps (4)

developement of bone starting with hyaline cartalge model (perichondrium=dence irregular cart-->periostium


-step 1: chondrocytes divide in epiphysis


-step 2: chondrocytes make cartilage


-step 3: old chondrocytes die and leave empty space


-step 4:as old chodrocytes die osteroblast occupy empty space left behind

epiphysis

round end of long bone (ball looknig thing)

diaphysis

between epihpysis (long parts of bone)

___regulates calcium

thyroid gland

parathyroid hormone

when low Ca


-mobilizes Ca in bone, increases renal reabsorbtion


-releases calicitrol-->inc intestinal absorbtion of Ca

calcitonin

Ca levels high


-incrase renal excretion

parathyroidectomy

used when low plasma Ca levels=high Na levels=high phosphate levels also


-symptoms=muscle tension of arm msucles

osteogenesis infectus

brittle bone cause of mutation cuasing kinked collogen, bone placed down wrong in curved fasion

parietal bone

top/back of head

occipital bone

back of head

manibrium

top of sternum

foramen magnum

foramena of skull to spine


-location determines if animal walks on two or 4 legs

coronal suture

frontal and parietal bones

lambaloid suture

between parietal and occipital, upside down v shaped

sagittal suture

between two parietal bones, up mid of skull sagitally

squamous suture

between temporal and parietal bones

maxillary sinus

each side of nose

corona sinus

inner nose sinus

frontal sinus

top of nose

ethmoid sinus

side of nose

canial fossae

depression of bone around brain to allow for brain to sit right


-anterior, middle, and posterior cranial fossae

xiphoid process

bottom of sternum

monubrium

top of sternum

centrum

veticle body of spine, helps transfer weight

vertebral arch

articular process and transverse process of spine

interverbal foraminae

gaps in vertebrae for nerves to connect to spinal cord, between body and vertebral arch

nucleus pulposis

gel in the middle of spinal disk

annulus firbosis

fibrocartilage in interverbal disks

histology

part of microscope anatomy:study of tissues

effectors

muslces or glands that give tell body how to respond to diff stimuli (too hot=swetting)

circadian rythms

body ryths over 24 hour period (a biological rythm)

thorasic cavity

superiour to diaphram and in front on spine (were lungs are)

abdominal cavity

inferior to diaphram


superior to pelvic cavity


-stomach to just below lungs

cranial cavity

contains brain and lower brain parts like brain stem, also vertebral canal

pelvic cavity

inferior to abdominal cavity


sexual parts

pleural cavity

space between the membranes of the lungs

pericardial cavity

space between the hearts pericardium and otehr membrane

mediastinum

thoracic cavity besides the lung, contains heart trachea ect.

oxytocin

hormone released from cervical stretch causing further contractions (positive feedback ex of birth)

parietal serous membrane

double layered membrane that outlies thorax ect.


-parietal is out membarne


-visceral is innermembane

peritonium

serous membrane that outlines abdominal cavity

pleura

serous membrane of pleural cavity

flux

determined by distance, square root of time

ficks law

rate of diffusion=sa*conc gradient*permeability/membrane thickness

hoff equation on osmosis

osmotic pressure=n CRT


dissolvable part per molecule*conc*R*temp

osmotic pressure of normal cells

7.63atm

tryp1

ion channel that senses heat

ciliated epithelia shape usually

columnar

kartegeners syndrome (PCD)

inversion of organs due to cilia moving in wrong dirreciton

endocrine glands composed of

epithelial tissue via development

goblet cells

secrete muccus (ex of secretory epithelia

acinas

secretory portion of secretory gland (apposed to duct portion)

parenchyma

secretory epithelia, group of acinas clumped together

merocrine common in


apocrine common in


holocrine common in

-most common, pancreus, swet


-milk and underarm


-sebacious glands

stratus cormeum

outermost layer of epidermus

basal lamina

extracelluar matrix sectreted by cels (acellular by itself)

pemiphegus vulgarus

disorder in desmisomes causes skin to be easy to blister

multipotent

stem cells, generate any cell type

bone breaking types(3)

transverse, oblique and spiral( 90 degrees)

hyaline cartilage

no nerves/blood vessals, lots of collogen


articular catilage is hyaline

firbocartilage

firbous and cartelagenous tissue


is scar tissue

elastic cartilage

elastic fibers


outer ear


very flexible

osteochondrial autographs

take tissue from dead person and put it into bone for stem cells

autolongous chondorycyte implantation

take cells from other part of bone then put them in

mesenschyme

cell were new bone cells begin to grow in intramembrious ossification

calcitrol

parathyroid hormone makes this happen (low Ca levels) increase in intestinal absorbtoin of Ca

osteopetrosis

bones become harder, bones more brittle

taung child

human ancestor fossils in africa, recognized humanoid walked upright by foramen magnum

metaphysis

in between epiphysis and diaphysis


part of growth plate of long bone

primary curvatures

thorasic and pelvic

secondary curvatures

cirvical and lumbar

best at secretion

cuboidal