front 1 Skin protect deeper tissues in forms of | back 1 chemical biologically and is a physical/mechanical barrier |
front 2 skin helps get rid of | back 2 heat and holds heat |
front 3 skin has many receptors that | back 3 detect change |
front 4 skin absorbs V-D that | back 4 increases active absorption of calcium |
front 5 Body temperature regulation if temperature increases | back 5 blood flow and sweet increase |
front 6 Body temperature regulation if temperature decreases | back 6 blood flow decreases |
front 7 Artrtiavenous anastomosis is a | back 7 connection |
front 8 cardinal sign of tissue damage | back 8 anytime there is tissue damage |
front 9 inflammation blood flow increases and capillaries become more | back 9 permeable |
front 10 inflammation is a Reaction of living tissue | back 10 damage |
front 11 when you cut into the dermis you cut | back 11 blood vessles |
front 12 in healing of cuts fibroblasts migrate into area and make | back 12 collagen fibers |
front 13 the symptoms of a first degree burn is | back 13 redness, swelling and pain |
front 14 symptoms in second degree burn | back 14 blistering, redness swelling and pain healing time a month |
front 15 symptoms in third degree burn | back 15 destroy epidermis and dermis loss of skin discoloration loss of fluid burn area is not painful but surrounding areas are high infection rate |
front 16 Fibroblast make collagen fibers to | back 16 speed healing binding edges of wound |
front 17 remove dead tissue and debris | back 17 Phagocytic cells in skin |
front 18 - is limited to epidermis, sun exposures no scaring sunburn | back 18 1st degree burn injury |
front 19 damage to epidermis and dermis Blistering 3-4 weeks heal time | back 19 2nd degree burns |
front 20 biggest concern on a 3rd degree burn is | back 20 loss of fluids leading to dehydration and infection |
front 21 grafted skin may be attacked by immune system using what kind of treatments? | back 21 homograph |
front 22 corey was in texas and burned shoulders bad couldnt wear a | back 22 shirt |
front 23 treatment of skin from same person places over burns | back 23 Autograph |
front 24 treatment of cadaver skin. skin substitute non skin membrane | back 24 Homograph grafting |
front 25 Rule of 9 is | back 25 analyzing burn damage body regions cover 9% or multiply of 9% |
front 26 the whole head makes up % of body | back 26 9% 4 1/2% front and back |
front 27 Total trunk makes up % of body | back 27 36% 18% front and back |
front 28 each arm makes up % of body | back 28 9% 4 1/2 % front and back |
front 29 each leg is % of body | back 29 9% 18% front and back total legs is 36% |
front 30 perineum is % of body | back 30 1% |
front 31 Scabs are | back 31 dried clotted blood |
front 32 in deeper cuts blood vessels broken pooled blood clots when blood slows down fibroblast make fibers to bind wound together blood vessels regrow in area phagocytes remove dead tissues damaged tissue is replace by new tissue | back 32 Healing process |
front 33 In bone you have living cells so bone is | back 33 A living tissue |
front 34 Mane function is to make | back 34 framework and structure for the body |
front 35 muscles pull on bones to cause | back 35 movement |
front 36 are living, dynamic tissues that are constantly changing | back 36 Bones |
front 37 is a slow process | back 37 repairing cartlege |
front 38 lacuna are openings in the | back 38 cartilage matrec is wear the cells libe |
front 39 Skeletal bones account for % of body mass | back 39 20% |
front 40 Support (framework)protection. Movement. Storage. Minerals. Growth factors. Lipids. Blood cell formation | back 40 Functions of bone |
front 41 No nerves or blood vessels. Chondrocytes in lacunae. | back 41 Skeletal Cartilages |
front 42 perichondrium is what kind of tissue | back 42 dense irregular tissue |
front 43 perichondrium is not found around | back 43 articular or fibrocartilage cartliage |
front 44 perichondrium has | back 44 nerve endings and is vascular |
front 45 Chondrocytes in the lacunae | back 45 maintain cartilage matrix |
front 46 is mostly dense irregular tissue that surrounds cartilage | back 46 Perichondrium |
front 47 Peri means | back 47 around |
front 48 Perichondrium is | back 48 vascular |
front 49 is not around fibrocartilage or articular cartilage | back 49 Perichondrium |
front 50 is hyaline cartilage that is on an articulated surface of a bone | back 50 Articular cartilage |
front 51 cartilage growth ceases in adolescents when | back 51 skeleton stops growing |
front 52 two bones come together | back 52 Articular surface |
front 53 mostly dense irregular tissue that surrounds cartilage. Have nerves and blood vessels. Not present around fibrocartilage or articular cartilage. | back 53 Perichondrium |
front 54 The flexible matrix of cartilage can accommodate cellular growth via mitosis | back 54 Cartilage Growth |
front 55 growth outside along and around edges | back 55 Appositional growth |
front 56 when chondroblast convert into chondrocytes you? | back 56 you stop growing chondrocytes maintain |
front 57 chondroblast are | back 57 cells that form cartilage that produce the cartilage matrix |
front 58 growth in the middle of the cartilage interior | back 58 Interstitial growth |
front 59 Cartilage growth | back 59 usually ceases in late adolescence when skeleton stops growing |
front 60 Compact (cortical) matrix is Dense thick and smooth in appearance | back 60 Osseous (Bone) Tissue: |
front 61 common name for compact bone is | back 61 cortical |
front 62 common name for spongy bone is | back 62 cancellous |
front 63 Cells that form cartilage that produce the cartilage matrix | back 63 Chrondroblast |
front 64 when chrondroblast convert into chondrocytes | back 64 You stop growing |
front 65 thick Dense and smooth in appearance | back 65 Osseous (Bone) Tissue: Compact bone (cortical) |
front 66 Open, sponge-like appearance & Trabeculae are thin branching bars. Inner portion of the bone | back 66 Spongy (Cancellous) bone |
front 67 Trabeculae meaning | back 67 arms |
front 68 bone forming cells builds bone. Matrix-synthesizing cell responsible for bone growth | back 68 Osteoblast Bone Cells |
front 69 break down bone matrix | back 69 Osteoclast |
front 70 less active and maintain the matrix | back 70 Osteocyte |
front 71 produce the bone matrix | back 71 Osteoblast |
front 72 maintains bone. Less active Mature bone cell that maintains the bone matrix | back 72 Osteocyte Bone Cells |
front 73 breaks down bone. Bone-reabsorbing cell | back 73 Osteoclast Bone Cells |
front 74 organic collagen fibers | back 74 Osteoids |
front 75 Hydroxylapatite & Osteoids are important for | back 75 function of bone |
front 76 Hydroxylapatite give bone | back 76 its hardness |
front 77 organic parts collagen fibers | back 77 Matrix Osteoid |
front 78 calcium- phosphate salts give bone its hardness resist compression | back 78 Hydroxylapatite |
front 79 Osteoid & Hydroxylapatite are important because? | back 79 Of Function of bone tention, tortion and compression |
front 80 means pulling or stretching forces because of collagen fibers resist | back 80 Tension |
front 81 bones are subject to these 3 types | back 81 torsion,tension & compression |
front 82 means a twisting force bones are not as strong muscle pulls falling down bone breaks because of this | back 82 Torsion |
front 83 means pushing or compact force bones are strong like jumping when you land | back 83 Compression |
front 84 Bone breaks because of | back 84 torsional stress |
front 85 Bone Tissue Components The organic portion helps | back 85 bone to resist stretching and twisting |
front 86 Bone Tissue Components The inorganic portion | back 86 helps bone to resist compression |
front 87 compact Bone organized in units called | back 87 osteons. |
front 88 Spongy Bone Microscopy ??? are scattered throughout trabeculae, not arranged around osteons. | back 88 Osteocytes |
front 89 Canaliculi are small canals that allow pathways for | back 89 diffusion of nutrients to the cells in the lacuna |
front 90 Canaliculis is | back 90 a small canal |
front 91 Spongy Bone Microscopy ??? travel through trabeculae | back 91 Canaliculi |
front 92 outer layer Covered by periosteum or articular cartilage. | back 92 Compact bone |
front 93 Compact bone is organized in units called | back 93 osteons also known as haversian systems |
front 94 surrounding the central canal are layers of bone matrix called | back 94 Lamellae |
front 95 an osteon is a cylindrical unit with a hollow passageway in the middle called | back 95 a central canal |
front 96 in between the Lamellae there are small openings where cells live are called | back 96 lacune |
front 97 Compact bone have | back 97 osteons |
front 98 is the basic unit of structure of compact bone | back 98 An Osteon |
front 99 ???? and its concentrically arranged ????constituting the basic unit of structure in compact bone | back 99 a haversian canal & lamellae, |
front 100 Canaliculi means | back 100 Narrow passageways that allow nutrients diffuse into the osteocytes lacuna |
front 101 Canaliculi means | back 101 small canals |
front 102 cells that maintain the bone matrix are called | back 102 osteocytes |
front 103 in the Lacuna of an osteon the cells are called | back 103 osteocytes |
front 104 are microscopic structures found in compact bone. They run within the osteons which are perpendicular to the Haversian canals, Perforating canals also carry small arteries throughout the bone | back 104 Volkmann’s canals |
front 105 are short layers of bone matrix in-between the osteons | back 105 Interstitial Lamellae |
front 106 long outside around the edge of matrix | back 106 Circumferential lamellae |
front 107 have the same structure in the lamellae inside osteons | back 107 Interstitial Lamellae & Circumferential |
front 108 Does not have osteons | back 108 Spongy bone (diploë) |
front 109 Four classes of bone are | back 109 long, short, flat irregular bones |
front 110 Bone Structure have red bone marrow | back 110 Short, Flat, & Irregular |
front 111 Spongy bone thin branches of bony matrix found in the | back 111 ends of long bones |
front 112 Canaliculi travel through the | back 112 trabeculae |
front 113 Trabeculae are usually composed of | back 113 dense fibrous tissue, mainly of collagen |
front 114 In the spongy bone between the Trabeculae | back 114 you have red bone marrow |
front 115 long axis cylinder with large ends
| back 115 Long Bone |
front 116 looks like a cube
| back 116 Short Bone |
front 117 small sesame seeds that grow inside of tendons where there is pressure or stress the patella carpals of the hand | back 117 Sesamoid bone |
front 118 Sesamoid bones are | back 118 a special type of short bone grow inside of tendons |
front 119 People who do a lot of shooting, athletes, using the same motion over and over, dancers stress on toes get ?? bones | back 119 Who gets Sesamoid bones? |
front 120 have thin layer of spongy bone in the middle | back 120 Flat Bone |
front 121 sutures of the skull where the bones interlock special type of flat bone | back 121 Sutural (wormian) |
front 122 What kind of nationality of people have a high incident of suture bones | back 122 Native Americans |
front 123 doesn’t fit anywhere else | back 123 Irregular Bone |
front 124 outer layer of compact bone and inner medullary cavity central portion | back 124 Dadiaphis |
front 125 becomes thinner and has spongy bone through out | back 125 Epiphyses compact bone |
front 126 Cavity inside the Dadiaphis is called | back 126 Medullary Cavity |
front 127 Medullary Cavity is lined with | back 127 Endosteum |
front 128 Cortex is | back 128 outer layer |
front 129 Medullar is | back 129 inner layer Middle |
front 130 Compact bone is also known as | back 130 Cortical bone |
front 131 in Cortical bone middle is the | back 131 medullary cavity |
front 132 where the long bone lengthens or grows from | back 132 Epiphyseal plate |
front 133 growth plate when young it is made of cartilage | back 133 Epiphyseal line – |
front 134 have articular cartilage around outside | back 134 Epiphysis |
front 135 hyaline cartilage is called articular cartilage because | back 135 the Epiphysis articulate or join with other bones |
front 136 outer covering on the outside of every bone you have the | back 136 periostem |
front 137 runs parallel to the long axis of the bone and carries blood vessels, nerves and lymph vessels through the bony matrix | back 137 Central(haversian) canal |
front 138 inner membrane lining around the inside of every bone | back 138 endosteum |
front 139 what is lined with endosteuum? | back 139 Medullary Cavity |
front 140 layer that is closer to the compact bone is called the | back 140 osteogenic |
front 141 the outer layer is called | back 141 fibrous layer made of dense irregular tissue |
front 142 osteoblast line the outside of? | back 142 COMPACT BONE |
front 143 periosteum has 2 sub layers they are | back 143 fibrous and osteogenic |
front 144 sharpeys fibers makes it so the | back 144 periostium stick to compact bone |
front 145 osteogenic means | back 145 bone growing |
front 146 bones joined by fibrous tissue | back 146 Fibrous joint |
front 147 slightly movable joints | back 147 amphiarthroses |
front 148 the irregular edges of the bones interlock and are united by very short connective tissue fibers | back 148 suture |
front 149 the articulating ones are connected by short ligaments of dense fibrous tissue: the bones do not interlock | back 149 syndesmoses |
front 150 a tooth is secured in a bony socket y the periodontal ligament | back 150 gomphosis |
front 151 freely movable joints | back 151 diarthroses |
front 152 lacunae arranged in concentric circles around the central cana | back 152 Circumferential lamellae |
front 153 cavity are often pared | back 153 Medullar & Cortex |
front 154 Membrane inside of bones inner lining | back 154 Endosteum |
front 155 what membrane is outside of compact bone outer covering | back 155 Periosteum Membrane |
front 156 What membrane has 2 sub layers | back 156 Periosteum Membranes |
front 157 Periosteum Membrane has 2 sub layers In long bone structure there is the | back 157 membranes and bone marrow |
front 158 Periosteum Fibrous layer is an | back 158 outer layer made of dense irregular of connective tissue |
front 159 has lots of osteoblast closer to the compact bone means bone growing | back 159 Periosteum Osteogenic layer |
front 160 what do osteoblast do | back 160 make the bone thicker |
front 161 what is an osteoblast | back 161 bone germinator |
front 162 osteogenic layer consist of | back 162 primarily of bone forming cells |
front 163 Osteoclast ARE | back 163 bone destroying cells, bone breakers |
front 164 osteogenic cells are | back 164 stem cells |
front 165 what do Sharpeys fibers do? | back 165 stick to the compact bone |
front 166 Yellow Bone Marrow in medullary cavity in adults is | back 166 made of adipose tissue |
front 167 Red Bone Marrow medullary cavity in children make | back 167 blood cell formation |
front 168 Short Flat and irregular bones are similar in structure but they don’t have | back 168 medullary cavitys full of spongy bone |
front 169 lined by the endosteum | back 169 spongy bone |
front 170 Spongy bone found on the inside is refereed to as | back 170 diploe |
front 171 intramembranous happens with | back 171 bones of the skull |
front 172 intramembranous means | back 172 bones grow inside of membranes |
front 173 endochondral means | back 173 inside of cartliege |
front 174 endochondral | back 174 all the rest of the bones |
front 175 Bone Development Ossification (osteogenesis)is | back 175 formation of bone tissue |
front 176 Bone Development Embryonic skeleton is composed of | back 176 flexible membranes and hyaline cartilage. |
front 177 What begins about 8 weeks in utero. | back 177 Ossification |
front 178 Intramembranous bone development bones grows | back 178 inside of membrane it Occurs in skull and clavicles |
front 179 Endochondral bone development | back 179 bones grow in the rest of the body |
front 180 1st Step of Intramembranous Ossification is cells cluster together to make | back 180 an ossification center appear making osteoblast |
front 181 Step 2 Intramembranous Ossification - grow ...start making Bone matrix is grow making bone and | back 181 cells become osteocytes. dividing cells blast increase in number |
front 182 step 3 of Intramembranous Ossification bones make Woven bone grow together and pcscp | back 182 make spongy bone & cells along edges form the periosteum |
front 183 in step 4 of Intramembranous Ossification Lamellar bone replaces woven bone, just deep to the periosteum. Red marrow appears | back 183 no data |
front 184 bone grows inside the cartilage model | back 184 Endochondral Ossification |
front 185 Endochondral also known as | back 185 intracartlagionus ossification |
front 186 in a long bone you start off with a primary ossification center that will become???? then forming bone collar | back 186 the diayphsis |
front 187 Endochondral Ossification: Step 1 you start off with a?? and bone collar is laid down around the diaphysis of | back 187 hyaline cartilage model |
front 188 Endochondral Ossification: Step 2 Cartilage in the center of the diaphysis calcifies and develops cavities Cells within calcified area are cut off from nutrients and die. Cavity forms where cells died. | back 188 Ossification expands cells die |
front 189 Endochondral Ossification: Step 5 The epiphyses ossify. When completed,it becomes? and articular cartilages can grow. | back 189 hyaline cartilage remains only in the epiphyseal plates |
front 190 Long bones grow until your | back 190 20-25 |
front 191 Endochondral Ossification: Step 4 The diaphysis elongates and a medullary cavity forms at birth Diaphysis lengthens as bone tissue formation chases growth of hyaline cartilage. . | back 191 Diaphysis ossifies bone collar merges with bone matrix |
front 192 Small bones finish growing | back 192 15-20 years old |
front 193 The epiphyseal plate is really a joint between separate bones (the epiphysis and diaphysis). This is one reason why children have more bones than adults. Cartilage is weaker than bone and is more prone to breaking. Breakage can cause abnormal growth. | back 193 Long Bones in Childhood |
front 194 Bone growth in childhood is mostly controlled by growth hormone. | back 194 Hyaline cartilage cells at epiphyseal plate continue to mitose, calcify, and erode. Process ceases when entire plate calcifies (15-25 years old). |
front 195 growth in length of long bones occur at the . | back 195 epiphyseal plate |
front 196 Hypertrophic zone . | back 196 Older cartilage cells enlarge. |
front 197 Matrix becomes calcified; cartilage cells die; matrix begins deteriorating | back 197 Calcification zone |
front 198 Resting zone is a place that cells not doing anything | back 198 chondrocytes |
front 199 growth in length of a long bone occurs at the | back 199 epiphyseal plate |
front 200 the major driver for bone growth in children is | back 200 growth hormone a hormone produced by the pituitary gland |
front 201 what zone does cartilage undergo mitosis | back 201 Proliferation zone |
front 202 what zone does older cartilage cells enlarge | back 202 Hypertrophic zone |
front 203 what zone does matrix becomes calcified cartilage cell dies matrix begin deteriorating | back 203 Calcification zone |
front 204 Hypertrophy is | back 204 abnormal large growth |
front 205 what zone does new bone formation is occurring | back 205 Ossification zone |
front 206 Bone Thickening ,grows around the edges is Also known as? | back 206 appositional growth. |
front 207 In Childhood the major driver for bone growth is growth hormone, A hormone produced by the | back 207 pituitary gland |
front 208 appositional growth causes bone to increase in diameter. Happens in long bones | back 208 Bone Thickening / appositional growth. |
front 209 In bone thickening Osteoblasts deposit bone matrix under the periosteum | back 209 the periosteum |
front 210 In bone thickening Osteoclasts remove bone matrix | back 210 under endosteum. |
front 211 in appositional growth osteoBlast Deposit bone matrix | back 211 under the periostum |
front 212 in appositional growth osteoClast Remove bone matrix | back 212 under endosteum |
front 213 are living tissues | back 213 Bones |
front 214 Bones are under constant construction. skeleton are completely replaced about every 10 years | back 214 Bone Remodeling |
front 215 Two main drivers for bone remodeling are | back 215 Hormonal mechanism, Mechanical stress mechanism |
front 216 Hormonal Mechanism Parathyroid hormone (PTH) Produced by the | back 216 parathyroid glands |
front 217 blood calcium is between 9-11 mm | back 217 In homeostasis of calcium in the blood. |
front 218 Parathyroid hormone Increases when | back 218 blood calcium is low |
front 219 Parathyroid hormone Causes increased activity of | back 219 osteoclasts to resorb mineral matrix |
front 220 in Hormonal Mechanism What is Produced by thyroid gland? | back 220 Calcitonin |
front 221 Calcitonin has a weaker effect than | back 221 PARATHYROID HORMONES |
front 222 Calcitonin Increases when | back 222 blood calcium is high. |
front 223 Calcitonin Causes osteoblasts to generate more | back 223 mineral matrix |
front 224 Calcitonin has a weaker effect than the | back 224 Parathyroid hormone |
front 225 a hormone released by apidose tissue, decreases spongy bone but increases compact bone | back 225 Leptin, |
front 226 bone grows or remodels in response to the demands placed on it. Bone are strongest where stress is greatest | back 226 Wolff’s law |
front 227 Astronauts who are in space need regular exercise if they don’t exercise in space they can lose What?
| back 227 bone density decreases,,,,, bones start to thin losing bone density |
front 228 bones become fragile and prone to breakage | back 228 Osteoporoetic bone |
front 229 Osteoporosis occurs in??? BECAUSE OSTEOBLAST INCREASES | back 229 postmenopausal women |
front 230 bone resorption outpaces bone deposit | back 230 Osteoporosis |
front 231 SEX HORMONES INCREASE | back 231 OSTEOBLAST ACTIVITY |
front 232 estrogen decreases testosterone & estrogen increase osteoblast decrease | back 232 post-menopausal women |
front 233 Bone Fractures Despite their ability to resist tension and compression, bones sometimes fracture. Classification of fractures: | back 233 Displaced/nondisplaced Complete/incomplete Compound/simple |
front 234 What are the3 types of bone cells | back 234 osteo- clast,blast & cite |
front 235 osteocyte | back 235 maintain |
front 236 osteoblact | back 236 build bone |
front 237 osteoclast | back 237 break it down/destroy bone |
front 238 as an adult osteoblast & osteoclast | back 238 producing and depositing |
front 239 IS a break in the bone | back 239 fracture |
front 240 in non-displaced fractures the bone | back 240 retain normal position |
front 241 displaced fractures the bone have | back 241 moved out of normal position alignment |
front 242 if bone is broken through it is | back 242 a complete fracture |
front 243 if bone doesn't break through | back 243 an incomplete fracture |
front 244 bone penetrates the skin | back 244 open compound fracture |
front 245 bone doesn't penetrate skin | back 245 closed compound simple fracture |
front 246 ragged break occurs when twisting is applied to bone common sports enjury | back 246 spiral fracture |
front 247 Bone breaks incompletely, much in the way a green twig breaks. Only one side of the shaft breaks, the other side bends. | back 247 greenstick |
front 248 broken bone pressed inward common skull fracture | back 248 Depressed fracture |
front 249 bone is crushed | back 249 compression fracture |
front 250 epiphysis separates from the diaphysis along the epiphseal plate | back 250 epiphseal fracture |
front 251 bone fragments into three or more pieces | back 251 comminuted fracture |
front 252 in bone repair realigned of broken ends means | back 252 Reduction |
front 253 in bone repair When ends are manually repositioned means | back 253 closed reduction |
front 254 in bone repair When ends are secured surgically with hardware | back 254 open reduction |
front 255 in bone repair When broken ends held in place occurs with a cast | back 255 immobilization |
front 256 small breaks on small bones take | back 256 6-8 weeks to heal |
front 257 First step in bone repair is | back 257 a hematoma forms |
front 258 second step in bone repair is | back 258 soft fibrocalagionus callus forms |
front 259 third step in bone repair is | back 259 bony callus forms |
front 260 fourth step in bone repair is | back 260 bone remodeling occurs |
front 261 tolerates repeated bending
| back 261 Elastic cartilage |
front 262 Provides sturdy support with some resilience or "give" | back 262 Hyaline Cartilage |
front 263 which cover the one ends at movable joints | back 263 Articular cartilage |
front 264 bones of the limbs or appendages | back 264 Appendicular Skeleton |
front 265 those one that lie around the body's center of gravity | back 265 Axial Skeleton |
front 266 a thin area of hyaline cartilage that provides for longitudinal growth of the bone during youth | back 266 epiphyseal plate |
front 267 thin bone covering the epiphyseal plate after the growth stops | back 267 epiphyseal line |
front 268 Forms the long axis of the bone. it is constructed of a thick collar of compact bone that surrounds a central Medullary cavity or marrow cavity. | back 268 Diaphysis |
front 269 are the bone ends. | back 269 Epiphyses |
front 270 involve Parathyroid horamone (PTH) is released when blood level of ionic calcium decline. | back 270 Hormanal influences: Primary |
front 271 Internal bone surface are covered with a delicate connective tissue mambrane | back 271 Endosteum (en-dos te um) |
front 272 reduction in rate of bone formation. | back 272 Osteoporosis |
front 273 Inflammation of bone and bone marrow caused by pus-forming bacteria that enter the body via a wound. | back 273 Osteomyelitis |
front 274 A prominence or projection | back 274 Process |
front 275 A hematoma forms
| back 275 Fractures and healing process |
front 276 A large somewhat blunt process | back 276 Trochanter |
front 277 a nodule or small rounded process | back 277 Tubercle |
front 278 A rounded prominence that articulates with another bone. | back 278 condyle |
front 279 A groove | back 279 Sulcus |
front 280 A sharp prominent bony ridge | back 280 Crest |
front 281 a smooth nearly flat articular surface | back 281 Facet |
front 282 A depression, often used as an articular surface | back 282 Fossa |
front 283 A pit generally used for attachment rather than for articulation. | back 283 Fovea |
front 284 A hole | back 284 Foramen |
front 285 A canal | back 285 Meatus |
front 286 the articulating bone ends are connected by a plate or pad of cartilage | back 286 cartilaginous joints |
front 287 the bones are connected by a broad,flat disc of fibrocartilage | back 287 symphyses |
front 288 the bony portions are united by hyaline cartilage | back 288 synchondroses |
front 289 those in which the articulating bone ends are separated by a joint cavity containing synovial fluid | back 289 synovial joint |
front 290 When it comes to movement and stability synarthrosis are | back 290 very stable |
front 291 When it comes to movement and stability amphiarthrosis are | back 291 moderately stable |
front 292 When it comes to movement and stability diarthrosis are | back 292 less stable |
front 293 diarthrosis are what kind of joints | back 293 freelt movable |
front 294 amphiarthrosis are what kind of joints | back 294 slightly movable |
front 295 synarthrosis are what kind of joints | back 295 immovable |
front 296 in structural classification fibrous joints are | back 296 bones attached by dense connective tissue |
front 297 in structural classification cartilaginous joints are | back 297 bones held together by cartilage, bones attached by a pad or plate |
front 298 in structural classification snyovial joints are | back 298 bones separated by a cavity converted by cartilage and attached by dense connective tissue |
front 299 most complex structural joint | back 299 synovial joint |
front 300 if you compare functional and structural classifications of joints fibrous joints are almost always | back 300 synarthrosis immovable |
front 301 if you compare functional and structural classifications of joints cartilaginous are almost always | back 301 amphiarthrosis slightly movable |
front 302 if you compare functional and structural classifications of joints synovial joints are always | back 302 diarthrosis freely movable |
front 303 narrow opening | back 303 fissure |
front 304 Raised area on or above a condyle | back 304 Epicondyle |
front 305 Where 2 bones meet | back 305 Joint |
front 306 Only moves in 1 direction e.g Elbow | back 306 Hinge joint |
front 307 Slight movement | back 307 Gliding joint |
front 308 Incases the synovial fluid | back 308 Synovial membrane |
front 309 Lubricates joints | back 309 Synovial fluid |
front 310 Connects bones to bones. Stretchy | back 310 Ligaments |
front 311 Connects bones to muscles. Not stretchy | back 311 Tendons |
front 312 Pair of muscles that work together to move bones at a joint. | back 312 Antagonistic pair |
front 313 Get smaller | back 313 Contract |
front 314 get larger | back 314 relax |
front 315 Disease that makes the bones rub together. | back 315 Arthritis |
front 316 Bones get brittle because of lack of calcium. | back 316 Osteoporosis |
front 317 WHAT CHARACTERISTICS DO ALL JOINTS HAVE IN COMMON? | back 317 MOVEMENT |
front 318 IN WHICH DIRECTION DOES THE SHOULDER USUALLY DISLOCATE? | back 318 DOWNWARD DISPLACEMENT OF THE HUMEROUS |
front 319 BONES ARE FORCED OUT OF THEIR NORMAL POSITION IN THE JOINT CAVITY | back 319 DISLOCATION. |
front 320 JOINTS BETWEEN PROXIMAL PHALANGES AND METACARPAL BONES | back 320 CONDYLOID |
front 321 DESCRIBE THE TISSUE TYPE AND FUNCTION OF THE FOLLOWING STRUCTURES IN RELATION TO A SYNOVIAL JOINT:bursa | back 321 BURSA
|
front 322 DESCRIBE THE TISSUE TYPE AND FUNCTION OF THE FOLLOWING STRUCTURES IN RELATION TO A SYNOVIAL JOINT:
| back 322 SOFT CONNECTIVE TISSUE; The synovial membrane secretes synovial fluid which serves to lubricate the joint and reduce the friction between bones in joints |
front 323 DESCRIBE THE TISSUE TYPE AND FUNCTION OF THE FOLLOWING STRUCTURES IN RELATION TO A SYNOVIAL JOINT:
| back 323 CONNECTIVE TISSUE; To cusion the bones from rubbing and smacking on each other. It also allows gliding motion. |
front 324 CHARACTERIZED BY CARTILAGE CONNECTING THE BONY PORTIONS | back 324 CARTILAGINOUS |
front 325 typically ALLOWS A SLIGHT DEGREE OF MOVEMENT | back 325 CARTILAGINOUS |
front 326 requirements for healthy bone | back 326 physical stress |
front 327 bone density increases with | back 327 repetitive stressors |
front 328 in terms of bone health which is better swimming? or weightlifting? | back 328 weightlifting |
front 329 repetitive stress can cause an increase in | back 329 bone density and strength |
front 330 astronauts lose what in space | back 330 bone density |
front 331 calcium is needed for what? | back 331 bone matrix |
front 332 what is needed calcium absorption | back 332 Vit-D |
front 333 Vit- A is needed for
| back 333 Osteoblast & Osteoclast functioning |
front 334 Vit-C is needed for
| back 334 collagen synthesis |
front 335 rickets is common in 3rd world countries and it is common in children that have | back 335 inadequate minerals bones become soft caused of lack of calcium |
front 336 bone has a lot of | back 336 collagen fibers |
front 337 growth hormone is produced by the | back 337 pituitary gland |
front 338 pituitary gland stimulates | back 338 mitosis of cells in the cartilage |
front 339 encourages replacement of cartilage with bone | back 339 thiroxin |
front 340 when growth plates close | back 340 growing stops |
front 341 promote formation of bone tissue like testosterone and estrogen | back 341 sex hormones gonads |
front 342 regulate bone density based on blood calcium | back 342 parathyroid glands & Calcitonin |
front 343 promote osteoblast activity increase so you lay down more bone matrix | back 343 sex hormones |
front 344 when blood calcium levels get low it increases osteoclast activity bone matrix is reduces | back 344 PTH Parathyroid Hormone |
front 345 is released when calcium blood levels are high causing osteoblast to increase activity | back 345 Calcitonin Thyroid gland |
front 346 Thyroid gland is also named | back 346 CalcitoninThyroid gland |
front 347 Movement away from the mid-line of the body | back 347 abduction |
front 348 Movement towards the mid-line of the body | back 348 adduction |
front 349 Bending the limbs at a joint. | back 349 flexion |
front 350 A circular movement around a fixed point | back 350 rotation |
front 351 Weakest part of the skeleton | back 351 Joints |
front 352 Fancy name for joint is | back 352 articulation |
front 353 Articulations are junction between | back 353 bone |
front 354 Functional classification Synarthroses | back 354 immovable joints skull |
front 355 Functional classification Amphiarthroses | back 355 slightly movable spine |
front 356 Functional classification Diarthroses | back 356 freely movable fingers wrist sholders |
front 357 Syndesmosis means | back 357 bones are connected by a ligament |
front 358 The functional classification is based on | back 358 the amount of movement allowed |
front 359 Cartilaginous joints are almost always | back 359 Amphiarthroses |
front 360 Fibrous joints are almost always | back 360 synarthroses |
front 361 Synovial joints are almost always | back 361 Diarthroses |
front 362 Synchondroses hyaline cartilage common in the | back 362 epiphyseal plate Cartilaginous |
front 363 Three types of fibrous joints are | back 363 Suture, Syndesmosis, Gomphosis |
front 364 Symphyses articular/joint fibro cartilage grow together | back 364 Cartilaginous joints |
front 365 Syndesmos is | back 365 ligament |
front 366 is connected by lose connective tissue soft tissue | back 366 Synovial membrane |
front 367 the articulating bone ends are connected by a plate or pad of cartilage
| back 367 cartilaginous joints |
front 368 bones joined by fibrous tissue | back 368 Fibrous joint |
front 369 articular disc wedge or disc of fibrocartilage fits joint & stabilize reduce ware. inproves fit of a joint | back 369 Meniscus |
front 370 Synovial fluid carries nutrients to | back 370 articular cartilage |
front 371 Meniscus found in the | back 371 tmj scj acj distal ruj and knee |
front 372 its an extension sits between soft tissue and bone extension of snoyvial membrane | back 372 Bursa sac of snoyvial fluid |
front 373 modified bursa that wraps around tendon bun around hotdog protects the tendon from abrasion and ware | back 373 Tendon sheath |
front 374 6 types of snyovila joints | back 374 plane, hinge pivot condyloid saddle ball and socket |
front 375 Gliding flat or slightly curved carpal joints ankle joints | back 375 Plane joint |
front 376 concave surface fits around convex movement of single plane elbow joint | back 376 Hinge joint |
front 377 convex sits inside a | back 377 concave bone |
front 378 cylindrical fits in ring twisting of axis c1/c2 | back 378 Pivot joints |
front 379 movement multiple planes radiocarpal joints | back 379 Condyloid ellispsoidal joint |
front 380 are shape ligaments and muscles that cross affect the mobility of the joint | back 380 Factors that affect mobility |
front 381 those in which the articulating bone ends are separated by a joint cavity containing synovial fluid | back 381 synovial joint |
front 382 abduction of the spine left or right | back 382 lateral flexion |
front 383 adduction of the spine | back 383 reduction |
front 384 Run longitudinally through each muscle fiber
| back 384 Myofibrils
|
front 385 what joint disease does a trex suffer from | back 385 gout |
front 386 What tissue is is striated long cells and is voluntary | back 386 Skeletal tissue |
front 387 What tissue is short has branched cells intercalated discs and is involuntary | back 387 Cardiac tissue |
front 388 what tissue is thin tapered cells with no straiations and is involuntary | back 388 Smooth tissue |
front 389 Excitability, Contractility, Extensibility and Elasticity are all Characteristics of what? | back 389 Muscle Tissue |
front 390 In muscle tissue excitability means what? | back 390 the ability to respond to a stimulus |
front 391 are you an ptmosist your an excitable | back 391 no data |
front 392 In muscle tissue contractility means what? | back 392 to contract and shorten unique to muscle |
front 393 In muscle tissue extensibility means what? | back 393 pull beyond its normal resting. strechy |
front 394 In muscle tissue elasticity means what? | back 394 snap back to resting position |
front 395 Myo and Mys mean myofillment myofibral
| back 395 Muscle |
front 396 MYS means | back 396 mouse |
front 397 Sarco means
| back 397 Fleash |
front 398 lemma means | back 398 husk |
front 399 Muscle Fiber for skeletal/smooth muscle means | back 399 CELL |
front 400 Movement ,Maintaning Posture, Stablizing Joints , Generating heat are what? | back 400 Majore Functions of Muscle |
front 401 Cardiac and smoothe cause what kind of movement | back 401 internal Movement |
front 402 Keeps bones in place is what major function of muscle | back 402 stablizing joints |
front 403 Pulling muscles on bones is what major function of muscle | back 403 Movement |
front 404 Cause compression of organs or the lungs cannot inflate if you done correctly use causing a disfunction this major function of muscle | back 404 Maintaing Posture |
front 405 whole muscle is wrapped by | back 405 epimysium sheaths |
front 406 each fascicle has its own connective tissue covering | back 406 perimysium sheaths |
front 407 inside the perimysiun muscle fibers cells are wrapped by | back 407 endomysium sheaths |
front 408 a whole muscle is an | back 408 organ |
front 409 muscles contract or shiver with short rapid contraction is what major function of muscle | back 409 generatng heat |
front 410 tendon what connects muscle to bone? and has what kind of tissue | back 410 Tendon dense regular tissue |
front 411 Muscle attaches to | back 411 skeleton |
front 412 if a tendon is connect muscle to bone its called an | back 412 indirect attachment |
front 413 the differences between a tendon and an aponeurosis is | back 413 shape |
front 414 tendon shape is like a | back 414 rope |
front 415 is a point of attachment that dosnt move during contraction | back 415 origin attachment |
front 416 is a point of attachment that does move during attachment | back 416 insertion attachment |
front 417 insert during contractions insertions towords moves origions | back 417 no data |
front 418 the plasma membrane of a muscle cell gets a special name called the | back 418 sarcolemma |
front 419 myfibriles cause the | back 419 contraction of muscle |
front 420 sacroplasmmic reticulum main function | back 420 stores calcium ions |
front 421 myoglobin store what | back 421 store oxygen |
front 422 glycosomes is an inclusion that stores | back 422 glycogen |
front 423 thin filaments attach directly | back 423 z disc |
front 424 attach titen elastic filaments | back 424 myosin |
front 425 is a chain of sarcomere attach end to end | back 425 a myfibril |
front 426 sarsomere are the basic units within the | back 426 myofiber |
front 427 I BANDS ARE WHAT IN COLOR | back 427 LIGHT |
front 428 A BANDS ARE WHAT IN COLOR | back 428 DARKER |
front 429 A BANDS ARE WHERE YOU HAVE THE | back 429 THICK MYOSIN FILLMENTS |
front 430 MDURING CONTRACTION THE z DISCS MOVE | back 430 CLOSER TOGETHER |
front 431 CONTRACTIONS OF MUSCLES IS DUE TO | back 431 SARCOMERES SHORTNING |
front 432 ACTON SLIDE | back 432 ACROSS MYO FILLMENTS |
front 433 MYOSIN ARE MADE UP OF | back 433 MYSON PROTINES |
front 434 ACTON AND MYOCIN | back 434 BIND TOGETHER |
front 435 is an actin-binding protein that regulates actin mechanics. It is important, among other things, for muscle contraction | back 435 TROPOMYOSIN |
front 436 EVENTS AT NEUROMUSCULAR JUNCTION | back 436 SIGNAL TERMINAL,CA++ OPEN,MOVE IN,RELEASE ACH INTO CLEFT, ACH BIND TO RECEPTORS, PERMEABILITY CHANGES |
front 437 THE CONNECTION BETWEEN NERVE CELLS AND MUSCLE CELLS IS CALLED A | back 437 NEUROMUSCULAR JUNCTION |
front 438 SKELETAL MUSCLE IS | back 438 VOLUNTARY |
front 439 IN REPOLARIZATION OUT AND BECOMES NEG INSIDE | back 439 no data |
front 440 TROPONIN | back 440 a complex of muscle proteins |
front 441 I BANDS ARE WHERE YOU DONT HAVE | back 441 MYOSIN FILLMENTS |
front 442 n muscle cells, the long coiled-coil tails of the individual myosin molecules join together, forming the thick filaments of the | back 442 sarcomere |
front 443 O/I can flip depending on state of contractions of other muscles | back 443 O/I can flip depending on state of contractions of other muscles |
front 444 the difference between origin and attachment | back 444 is the direction of movement that occurs |
front 445 aponeurosis shape is | back 445 flat sheet |
front 446 Muscles attaches to | back 446 tendons dense regular tissue |
front 447 LEAK CHANNELS ALLOW MORE GOING OUT THAN NA IN | back 447 ALLOW MORE K GOING OUT THAN NA IN |
front 448 MEMBRANE POTENTIAL REFEREES TO A DIFFERENCE IN CHARGE BETWEEN THE | back 448 INSIDE AND OUTSIDE OF A MEMBRANE |
front 449 RESTING MEMBRANE POTENTIAL AT REST THERE IS A DIFFERENCE IN CONCENTRATION AND A DIFFERENCE IN MEMBRANE POTENTIAL SO ITS MORE | back 449 NEGATIVE INSIDE THE CELL |
front 450 IN A RESTING MUSCLE CELL THE INSIDE OF THE CELL IS | back 450 NEGATIVE |
front 451 AT REST ITS THE MEMBRANE POTENTIAL | back 451 -70mV
|
front 452 a change in a cell's membrane potential, making it | back 452 more positive, or less negative |
front 453 highly ORGANIZED | back 453 MUSCLE TISSUE |
front 454 housemaid's knee is an inflammation of the prepatellar bursa at the front of the knee It is marked by swelling at the knee, which can be tender to the touch but which does not restrict the knee's range of motion | back 454 Prepatellar bursitis |