front 1 each hemisphere is chiefly concerned with functions on the opposite side of the body. | back 1 Contralateral |
front 2 some functions only occur in one hemisphere.
| back 2 Lateralization |
front 3 Three types of functional areas: | back 3 Motor, Sensory, Association |
front 4 Houses conscious mind (e.g., reasoning, emotion, memory, sensory input, language, voluntary movements). | back 4 Cerebral Cortex |
front 5 Primary motor cortex is located in the | back 5 precentral gyrus |
front 6 Voluntary control of skeletal muscle contraction | back 6 Primary motor cortex |
front 7 Controls repetitious or patterned motor skills | back 7 Premotor cortex |
front 8 Voluntary eye movement is in the | back 8 Frontal eye field |
front 9 Directs muscles of speech production.
| back 9 Broca’s area |
front 10 Broca’s area is located? | back 10 only on left side. |
front 11 What are the four main motor areas of cortex? | back 11 Primary motor cortex, Premotor cortex, Frontal eye field and Broca’s area |
front 12 mapping of body in CNS structures | back 12 Somatotopy |
front 13 General Pathway of Sensory Input are? | back 13 Sensory receptors,Primary sensory cortex,Sensory association cortex, Multinodal association cortex |
front 14 Detect stimulus and send message to brain. | back 14 Sensory receptors |
front 15 Primary sensory cortex Interprets | back 15 basic aspects of sensory input. |
front 16 Sensory association cortex | back 16 Uses prior knowledge to put sensory input into correct context. |
front 17 Integrates many inputs to make decisions. | back 17 Multinodal association cortex |
front 18 Somatic sensation: Primary somatosensory cortex | back 18 General senses (pain, touch, temperature).
|
front 19 part of cortex that stored a memory
| back 19 Somatosensory association cortex |
front 20 sensations on left side of body go to right hemisphere. | back 20 Contralateral |
front 21 Primary visual cortex | back 21 Somatotopic map of retina. |
front 22 Visual association cortex | back 22 Associates images with previous knowledge base.
|
front 23 Primary visual cortex | back 23 Identifies color, edges (shape), and movement.
|
front 24 Primary visual cortex is located in | back 24 occipital lobe area |
front 25 Auditory areas are Primary auditory cortex are located? | back 25 inferior end of the post central gyrus in the temporal region |
front 26 Interprets pitch, loudness, location. | back 26 Primary auditory cortex |
front 27 if damage happens to the primary cortex you are | back 27 functionally blind |
front 28 Auditory association cortex are | back 28 Sound linked to known types. |
front 29 Gustatory cortex is | back 29 Sensation of taste |
front 30 Gustatory cortex is located | back 30 deep on the insula |
front 31 Part of lg part of rhinencephalon. | back 31 Olfactory cortex |
front 32 What does the rhinencephalon do? | back 32 processes emotion |
front 33 Olfaction has a strong connection with emotion | back 33 no data |
front 34 Visceral sensory area is on | back 34 the insula |
front 35 Visceral sensory means | back 35 sensory information coming from viscera internal organs, bladder heart lungs |
front 36 Vestibular (equilibrium) cortex | back 36 close to auditory cortex in the insula sends information (equilibrium) |
front 37 Multinodal Association Areas (MAAs) | back 37 to have more complex connections with multiple inputs and multiple outputs. |
front 38 There are three MAAs: | back 38 Anterior,Posterior,Limbic |
front 39 Store information in memory.
| back 39 General functions:Multinodal Association Areas (MAAs) |
front 40 Multinodal Association Areas | back 40 Relay decisions to premotor cortex |
front 41 Anterior association area is in the | back 41 Prefrontal cortex: anterior area of the frontal lobe |
front 42 Involved with:Intellect.Complex learning. Recall (memory),personality | back 42 Anterior association |
front 43 lobotomy was preformed in this area | back 43 Prefrontal cortex |
front 44 Involved with: Recognizing patterns.
| back 44 Posterior association area |
front 45 is important in understanding written and spoken language. | back 45 Wernicke’s area |
front 46 Working memory is used for abstract ideas, judgment, reasoning, and planning. | back 46 Anterior association area(Prefrontal cortex) |
front 47 Prefrontal cortex is the last area of the brain to? | back 47 fully develop |
front 48 teenagers have problems associated with this area the _______ because it is the last area of the brain to fully develop. | back 48 function Prefrontal cortex |
front 49 Posterior association area is | back 49 Recognizing patterns mostly temporal lobe |
front 50 Wernicke’s area is located | back 50 Posterior association area on the left hemisphere |
front 51 Limbic Association Area are located around the? | back 51 Cingulate gyrus,Parahippocampal gyrus,Hippocampus
|
front 52 The three areas Multinodal Association Areas are | back 52 Anterior association area,Posterior association area, and the Limbic Association Area |
front 53 Limbic Association Area provides | back 53 emotional impact that makes something important.
|
front 54 Limbic Association can | back 54 fast track events into long-term memory |
front 55 awareness of sensation, voluntary control of movement, and higher mental processing (memory, logic, judgment, etc.). | back 55 Consciousness |
front 56 brief loss of consciousness.
| back 56 Fainting (syncope) |
front 57 prolonged state of unconsciousness from a which a person cannot be aroused. | back 57 Coma |
front 58 state of partial unconsciousness from which a person can be aroused | back 58 Sleep |
front 59 where was Corey during the September 11 attacks? | back 59 sitting on a hill in Costa Rica counting birds |
front 60 storage and retrieval of information. | back 60 Memory |
front 61 Two stages: of memory | back 61 Short-term (working) memory, Long-term memory |
front 62 (fact) memory
| back 62 Declarative |
front 63 (skills) memory
| back 63 Procedural |
front 64 Cerebral White Matter | back 64 Myelinated axons bundled into tracts |
front 65 Hypnograms are? | back 65 RECORDING OF SLEEP ACTIVITY |
front 66 Cerebral White Matter: connect corresponding parts of the two hemispheres. | back 66 Commissure |
front 67 Cerebral White Matter: connect different parts of the same hemisphere. | back 67 Association |
front 68 Cerebral White Matter: connect cerebrum to other brain structures or spinal cord. | back 68 Projection |
front 69 Efferent are? | back 69 (motor) |
front 70 REM means | back 70 rapid eye movement |
front 71 REM occurs because you? | back 71 involuntary contractions of eye muscles rapid movement of eye |
front 72 Dreaming happens in the REM state | back 72 REM state |
front 73 Islands of gray matter deep within white matter that receive input from entire cerebral cortex | back 73 Basal Nuclei |
front 74 Basal Nuclei is Responsible for | back 74 directing body movements starting, stopping, and planning the intensity of body movements. |
front 75 Parkinson disease,Huntington disease Disorders that affect the? | back 75 basal nuclei show symptoms that distort these functions. function with body movements |
front 76 Substantia nigra (in midbrain} makes most of | back 76 the dopamine in the brain |
front 77 Corpus callosum is the largest | back 77 Commissure |
front 78 two main projections in the cerebral tracks are | back 78 Internal capsule and Corona radiata |
front 79 how many basil nucleus are in each hemisphere? | back 79 0ne |
front 80 Functionally associated with: Subthalamic nuclei | back 80 in diencephalon) |
front 81 what is the functional name for the post central gyrus? | back 81 primary |
front 82 Diencephalon: Largely gray matter that surrounds the third ventricle, in three parts what are they? | back 82 Thalamus, Hypothalamus,Epithalamus |
front 83 Comprises 80% of diencephalon. | back 83 Thalamus |
front 84 Thalamus is a | back 84 Primary relay station for signals to cerebral cortex.
|
front 85 Main visceral control center of body | back 85 Hypothalamus |
front 86 Diencephalon make up what precent of brain mass? | back 86 three or four |
front 87 Cerebrum makes up what percent of brain mass? | back 87 eighty |
front 88 what are the four primary brain structures | back 88 Cerebrum, Cerebellum, Limbic System, Brain Stem |
front 89 The cerebrum or cortex is the | back 89 largest part of the human brain, |
front 90 associated with higher brain function such as thought and action. The cerebral cortex is divided into four sections, called "lobes": the frontal lobe, parietal lobe, occipital lobe, and temporal lobe. | back 90 cerebrum or cortex |
front 91 associated with reasoning, planning, parts of speech, movement, emotions, and problem solving | back 91 Frontal Lobe |
front 92 associated with movement, orientation, recognition, perception of stimuli | back 92 Parietal Lobe |
front 93 associated with visual processing | back 93 Occipital Lobe |
front 94 associated with perception and recognition of auditory stimuli, memory, and speech | back 94 Temporal Lobe |
front 95 often referred to as the "emotional brain | back 95 The limbic system, |
front 96 The limbic system,contains the | back 96 thalamus, hypothalamus, amygdala, and hippocampus |
front 97 This structure is responsible for basic vital life functions such as breathing, heartbeat, and blood pressure | back 97 the brain stem. |
front 98 The brain stem is made of the | back 98 midbrain, pons, and medulla. |
front 99 Diencephalon is made up of | back 99 gray matter |
front 100 Thalamus is the | back 100 Primary relay station |
front 101 Hypothalamus Functions its a | back 101 control center of the ANS autonomic nervous system |
front 102 ANS control center.Center for emotional response.
| back 102 Hypothalamus Functions |
front 103 Hypothalamus controls the | back 103 pituitary gland |
front 104 the connection between the endocrin and nervous system is the | back 104 Hypothalamus & pituitary gland |
front 105 most of the ANS functions originate with the | back 105 Hypothalamus |
front 106 White matter tracts with gray matter nuclei that produce rigidly programmed, automatic behaviors necessary for survival | back 106 Brainstem |
front 107 Visual and auditory reflexes | back 107 Midbrain |
front 108 Connects motor cortex to cerebellum | back 108 Pons |
front 109 Cardiac center, Vasomotor center,Respiratory center
| back 109 Medulla oblongata |
front 110 Some of these functions are coordinated by the hypothalamus and carried out by the medulla | back 110 Cardiac center, Vasomotor center,Respiratory center
|
front 111 no data | back 111 Ten of the twelve |
front 112 Receives inputs from multiple sources to provide precise timing and patterns for coordinated body movements | back 112 Cerebellum |
front 113 Cerebellar peduncles connections to brainstem are? | back 113 Inferior Middle Superior |
front 114 sensory info on body position. | back 114 Inferior peduncles |
front 115 cortical info on desired movements. | back 115 Middle peduncles |
front 116 sends movement signals to cerebral motor cortex. | back 116 Superior peduncles |
front 117 on the Posterior side are where you have auditory and visual reflexs | back 117 Inferior colliculi & Superior colliculi |
front 118 Networks that span large areas rather than being localized in a small region. | back 118 Functional Brain Systems |
front 119 Limbic system Parts of cerebrum and diencephalon Forms the? | back 119 emotional brain. |
front 120 Cerebellum is responsible for | back 120 positioning the body and direction |
front 121 peduncles do what? | back 121 connects cerebellum to other structures |
front 122 Reticular formation Formed by | back 122 core of brainstem. |
front 123 What on the Cerebellum is not contralateral. | back 123 Somatotopic map controls same side |
front 124 Filters nearly 99% of sensory information.never makes it to consciousness
| back 124 reticular activating system |
front 125 main part of the Reticular formation is | back 125 reticular activating system (RAS) |
front 126 Damage in the _____ can lead to coma | back 126 Reticular formation |
front 127 Sensory Processing Disorder can | back 127 Sensory avoiders – RAS does not filter enough.seek quietness
|
front 128 Helps express emotion & Helps resolve mental conflicts when frustrated | back 128 Cingulate gyrus |
front 129 damage to the Amygdala | back 129 wont show proper fear response |
front 130 is cause by a lack of function in the Cingulate gyrus difficulty expressing emotion & resolving frustration | back 130 Autism |
front 131 stores Memory of emotional responses.
| back 131 Amygdala |
front 132 RAS filters too much. hit head on wall | back 132 Sensory seekers |
front 133 RAS does not filter enough.seek quietness dont like to be touched | back 133 Sensory avoiders |
front 134 Peripheral nervous system PNS is broken down in two divisions | back 134 sensory and motor |
front 135 Three main parts of the Peripheral | back 135 Sensory receptors,Peripheral neurons, Motor nerve endings |
front 136 Peripheral neurons
| back 136 (sensory) |
front 137 Sensory receptors | back 137 detect stimuli |
front 138 these carry to or away from CNS | back 138 Peripheral neurons |
front 139 Motor nerve endings | back 139 makes a synapse with another structure muscle or glands |
front 140 a change in neuron’s environment is a | back 140 Stimulus |
front 141 the receptor will depolarize and initiate an impulse to the CNS. | back 141 Upon detection of a stimulus, |
front 142 receptors that detect mechanical forces (e.g., touch, movement | back 142 Mechanoreceptors |
front 143 mechanical forces are | back 143 touch, vibration sound |
front 144 Mechanical forces deform the receptor, causing it to | back 144 generate an action potential |
front 145 receptors that detect muscle length (stretch). | back 145 Proprioreceptors |
front 146 receptors that detect fluid (blood) pressure.
| back 146 Baroreceptors |
front 147 receptors that detect touch. | back 147 Tactile receptors |
front 148 How are sensory receptors classified if they are grouped based on the cue that activates the cell? | back 148 Classification of receptors by stimulus |
front 149 What are the three ways that sensory receptors can be classified? | back 149 Stimulus,Location,Complexity |
front 150 What are nociceptors? | back 150 Response to damaged stimuli and cause pain |
front 151 What are mechanoreceptors? What are some examples of what they detect? | back 151 Responsive to mechanical forces
|
front 152 receptors that detect sounds change shape | back 152 Hair cells |
front 153 detect temperature changes.
| back 153 Thermoreceptors |
front 154 cold Thermoreceptors | back 154 decrease in tempature |
front 155 warm Thermoreceptors | back 155 increase in tempature |
front 156 detect chemicals in solution.
| back 156 Chemoreceptors |
front 157 two chemicals in solution | back 157 Olfaction – smell & Gustation – taste |
front 158 (pain receptors) detect tissue damage or stimuli associated with a condition that could damage tissue.
| back 158 Nociceptors |
front 159 detect light Found in retina of the eye. | back 159 Photoreceptors |
front 160 Nociceptors are Located throughout body, except | back 160 for brain |
front 161 the five classes of Stimulus receptors | back 161 Mechanoreceptors, Nociceptors, Photoreceptors, Chemoreceptors & Thermoreceptors |
front 162 decrease in sensitivity to the presence of a continuing stimulus. coins on arm or getting used to a smell | back 162 Sensory adaptation |
front 163 receptors do adapt to stimuli. most receptors are | back 163 Phasic |
front 164 receptors do not adapt to stimuli.
| back 164 Tonic |
front 165 Stimulus Location: stimulus occurs outside the body. | back 165 Exteroreceptors |
front 166 Stimulus Location: stimulus occurs inside the body.Visceroreceptors Proprioreceptors | back 166 Interoreceptors |
front 167 Structural Complexity | back 167 simple or complexed |
front 168 general senses, single cell General senses Dendritic endings may be: Encapsulated or Unencapsulated | back 168 Simple |
front 169 make up your Special senses, multiple cells organized into sensory organs. | back 169 Complex |
front 170 Dendritic endings that are covered are | back 170 Encapsulated |
front 171 Unencapsulated dendritic endings and encapsulated dendritic endings are two groups within what division of sensory receptor complexity called? | back 171 Simple receptors |
front 172 Dendritic endings that are naked are | back 172 Unencapsulated |
front 173 multiple cells organized into sensory organs.
| back 173 Complex |
front 174 Sensation of stimuli must be integrated into perception | back 174 Sensory Integration |
front 175 – detection and conduction to CNS | back 175 Receptor level |
front 176 processing in ascending pathways. | back 176 Circuit level – |
front 177 processing cortical centers (conscious awareness of sensation | back 177 Perceptual level – |
front 178 Somatosensory organization | back 178 Receptor level, Circuit level, Perceptual level |
front 179 no data | back 179 bundles of axons |
front 180 Visceral pain sensation travels along same pathways as cutaneous pain sensation Leads to | back 180 referred pain |
front 181 vasicules are from | back 181 whole nerve |
front 182 Within a nerve, each axon is surrounded by a layer of connective tissue called the | back 182 endoneurium |
front 183 The axons are bundled together into groups called | back 183 fascicles |
front 184 each fascicle is wrapped in a layer of connective tissue called the | back 184 perineurium |
front 185 ntire nerve is wrapped in a layer of connective tissue called the | back 185 epineurium |
front 186 conduct signals from sensory neurons to the central nervous system | back 186 no data |
front 187 no data | back 187 Efferent |
front 188 What is a fascicle? (in terms of nerve structure) | back 188 bundle of axons within a nerve |
front 189 What is an efferent only nerve? Afferent only? | back 189 Efferent only - motor only
|
front 190 What types of information are sent to the brain from proprioceptors? | back 190 information related to body structure, position and stretch |
front 191 What is the difference between complex and simple receptors? | back 191 Complex- sense organs
|
front 192 has all sensory axons all going to the CNS | back 192 Sensory nerve |
front 193 carries all axons away from the CNS | back 193 Motor nerve |
front 194 the vagus nerve goes to torso | back 194 no data |
front 195 has sensory and motor axons | back 195 no data |
front 196 Vagus extends into | back 196 no data |
front 197 Twelve pairs. are numbered | back 197 anterior to posterior |
front 198 no data | back 198 Purely sensory: |
front 199 no data | back 199 Mostly sensory: |
front 200 no data | back 200 Mixed |
front 201 no data | back 201 Mostly motor |
front 202 Dorsal = sensory goes | back 202 into soinal cord |
front 203 Ventral = motor goes | back 203 out of spinal cord |
front 204 Ventral form the | back 204 plexes |
front 205 no data | back 205 Dermatomes |
front 206 Dermatomes are | back 206 area of skin innervated by sensory axons of a particular spinal nerve. |
front 207 no data | back 207 Nerve Plexuses |
front 208 C1 to C5 is the – | back 208 Cervical plexus |
front 209 C4 to T1 is the | back 209 Brachial plexus |
front 210 L1 to L5
| back 210 Lumbar plexus anterior part of leg |
front 211 L4 to Co
| back 211 Sacral plexus posterior part of leg |
front 212 same plexus is called the | back 212 lubbo sacral plexus |
front 213 two divisions of the ANS is | back 213 Sympathetic & Parasympathetic |
front 214 fight or flight response | back 214 Sympathetic |
front 215 rest and repair | back 215 Parasympathetic |
front 216 runs unconsciously | back 216 ANS autonomic nervous system |
front 217 no data | back 217 Somatic NS |
front 218 Somatic Nervous system always uses | back 218 ACH neurotransmitter |
front 219 Somatic Nervous system is always | back 219 excitatory |
front 220 Pathway consists of single neuron from CNS to effector | back 220 Somatic NS |
front 221 Thick axon is heavily myelinated. | back 221 SNS |
front 222 Neurotransmitter is ACh or NE | back 222 ANS |
front 223 Pathways consists of two-neuron chain from CNS to effector. | back 223 Autonomic nervous system |
front 224 no data | back 224 Parasympathetic |
front 225 int the Parasympathetic Long axons are. | back 225 preganglionic |
front 226 in the Parasympathetic Very short axons are. | back 226 postganglionic |
front 227 no data | back 227 Sympathetic |
front 228 in the Sympathetic the ____ preganglionic axons form plexuses. | back 228 Shorter |
front 229 in the Sympathetic the ____ postganglionic axons. | back 229 Longer |
front 230 Preganglionic axon are | back 230 Lightly myelinated |
front 231 Parasympathetic & Sympathetic have | back 231 opposing effects |
front 232 Postganglionic axon are | back 232 Unmyelinated |
front 233 Parasympathetic division is also known as the | back 233 Craniosacral |
front 234 Sympathetic division is also known as the | back 234 Thoracolumbar |
front 235 Sympathetic | back 235 increases |
front 236 Parasympathetic | back 236 decrease |
front 237 Digestion
| back 237 Parasympathetic increases and the Sympathetic decreases |
front 238 in the penis Parasympathetic causes | back 238 Erection |
front 239 in the penis Sympathetic causes | back 239 Ejaculation |
front 240 Receptors are usually modified endings of single neurons.
| back 240 general senses touch temperature |
front 241 Receptors are in sensory tissues or organs.Localized, confined to head. | back 241 special senses |
front 242 an organism’s perception of
| back 242 Umwelt |
front 243 Umwelt means | back 243 a perceptional world is different than another |
front 244 inner Tunics of Eye is called the | back 244 retina |
front 245 Anterior segment – aqueous humor.
| back 245 no data |
front 246 more sensitive to light only have one pigment cannot see color | back 246 rods |
front 247 see in colors the three colors are AND less sensitive to light | back 247 cones, RED GREEN AND BLUE |
front 248 refract (bend) light waves entering the eye | back 248 both cornea and lens |
front 249 The ____is fixed, but the | back 249 cornea |
front 250 flexible so it can adjust the degree of refraction | back 250 lens |
front 251 Myopic eye means you are | back 251 nearsighted up close far away blurry |
front 252 Hyperopic eye means you are | back 252 farsighted see far away up close is blurry |
front 253 Emmetropic eye means you are | back 253 normal |
front 254 Rods contain a pigment called rhodopsin. When rhodopsin absorbs light it splits into retinal and opsin.
| back 254 Phototransduction in Rods |
front 255 Rods contain a pigment called . | back 255 rhodopsin |
front 256 in Phototransduction what stops release of an inhibitory neurotransmitter (glutamate) at synapses with bipolar cells. | back 256 Hyperpolarization |
front 257 When rhodopsin absorbs ______ into retinal and opsin. | back 257 light it splits |
front 258 Similar to rods, but much less sensitive to light. | back 258 Stimulation of Cones |
front 259 The pigments (photopsins or iodopsins) are formed by retina,and _____ (in red cones). | back 259 erythrolabe |
front 260 The pigments (photopsins or iodopsins) are formed by retina,and ______(in green cones).
| back 260 chlorolabe |
front 261 The pigments (photopsins or iodopsins) are formed by retina,and ______(in green cones).
| back 261 chlorolabe |
front 262 Detection of chemicals dissolved into solution is called | back 262 Chemoreception |
front 263 Two chemoreceptive special senses are | back 263 Olfaction (smell)
|
front 264 retinal and opsin | back 264 no data |
front 265 what is vitamin A? | back 265 retinal |
front 266 retinal is important for? | back 266 vision |
front 267 steps in Phototransduction step 1 | back 267 rhodopsin absorbs light it splits retinal and opsin |
front 268 steps in Phototransduction step 2 | back 268 Opsin activates transducin |
front 269 steps in Phototransduction step 3 | back 269 Transducin activates PDE |
front 270 steps in Phototransduction step 4 | back 270 PDE converts (cGMP) into GMP. |
front 271 steps in Phototransduction step 5 | back 271 cGMP levels close cation channels |
front 272 steps in Phototransduction step 6 | back 272 stops release glutamate |
front 273 steps in Phototransduction step 7 | back 273 depolarize and release excitatory neurotransmitters onto ganglionic cells. |
front 274 steps in Phototransduction step 8 | back 274 EPSPs in the ganglionic |
front 275 steps in Phototransduction step 9 | back 275 The brain interprets |
front 276 steps in Olfactory Transduction | back 276 no data |
front 277 In cones, seeing variations in color if your seeing light blue | back 277 blue and green cones |
front 278 In cones, seeing variations in color if your seeing orange or yellow | back 278 red cones and green cones |
front 279 In cones, seeing variations in color if your seeing white | back 279 red, blue green cones |
front 280 Olfaction (smell) the organs are | back 280 olfactory epithelium |
front 281 Gustation (taste)organs are | back 281 taste buds |
front 282 Olfactory receptor cell have | back 282 Olfactory cilia |
front 283 Odor molecules (odorants) bind to receptor proteins in membrane of olfactory cilia. | back 283 Olfactory Transduction (Smelling)Step 1 |
front 284 Receptor activates G protein. | back 284 Olfactory Transduction (Smelling)Step 2 |
front 285 G protein activates adenylate cyclase. | back 285 Olfactory Transduction (Smelling)Step3 |
front 286 Adenylate cyclase converts ATP to cAMP. | back 286 Olfactory Transduction (Smelling)Step 4 |
front 287 cAMP binds to cation channel. | back 287 Olfactory Transduction (Smelling)Step 5 |
front 288 Influx of cations (Na+ and Ca++) depolarizes cell. | back 288 Olfactory Transduction (Smelling)Step 6 |
front 289 The depolarized cell transmits an impulse to a neuron in the olfactory bulb, which carries the signal to the brain | back 289 Olfactory Transduction (Smelling)Step 7 |
front 290 Olfactory Transduction (Smelling)Step 1 | back 290 no data |
front 291 Most taste buds are associated with the ,_________ but they occur throughout the oral cavity and pharynx | back 291 papillae of the tongue |
front 292 the inner ear holds receptors for | back 292 hearing and equilibrium. |
front 293 taste buds are | back 293 Gustatory cell |
front 294 Gustatory cell have | back 294 Gustatory hairs |
front 295 high level sour tastes can be | back 295 damaging to tissues |
front 296 low level Sour detects | back 296 ascorbic acids and vitamin's |
front 297 Taste Types Sour detects | back 297 acids |
front 298 Taste Types Sweet detects | back 298 many carbohydrates, some proteins. |
front 299 sweet tastes represent | back 299 energy for the body |
front 300 Taste Types Salty detects | back 300 inorganic salts (ions) |
front 301 Taste Types Bitter detects | back 301 alkaloids, spoiled foods, some toxins. |
front 302 Bitter is what your | back 302 body don't want |
front 303 Umami only reconized for the last | back 303 20 years |
front 304 Umami detects | back 304 the presents of proteins |
front 305 Umami means | back 305 Delicious taste |
front 306 Taste Types Umami detects | back 306 glutamic acid. |
front 307 Air
| back 307 how Sound waves (vibrations) are passed |
front 308 outer ear is called | back 308 Auricle pinna |
front 309 outer edge of the Auricle is called | back 309 Helix |
front 310 Ear canal is called | back 310 (external auditory meatus,
|
front 311 outer ear consist of the | back 311 Auricle Helix Lobule Ear canal Tympanic membrane (ear drum) |
front 312 Middle Ear consist of the | back 312 Auditory ossicles: Malleus (hammer)Incus anvil)
|
front 313 This bone is attached to the Tympanic membrane | back 313 Malleus (hammer) |
front 314 vibrations are passed along the | back 314 Auditory ossicles |
front 315 when the stapes vibrates it pushes | back 315 on the oval window transfering vibrations to a fluid on the otherside of the membrane |
front 316 Phayngotympanic tube allows | back 316 air to move swallow or yawn |
front 317 in order for the Tympanic membrane to vibrate properly | back 317 air pressure has to be equal on both sides |
front 318 Muscle that attaches to the Malleus is called | back 318 Tensor tympani muscle |
front 319 Muscle that attaches to the stapes is called | back 319 Stapedius muscle |
front 320 when the Tensor tympani muscle & Stapedius muscle contract it causesthe bones to | back 320 vibrate less dampen loud sounds |
front 321 Cochlea is the organ for | back 321 hearing |
front 322 Semicircular canals are attached to the | back 322 Vestibule |
front 323 Semicircular & Vestibule are associated with | back 323 equilibrium |
front 324 ear infections happen | back 324 in the middle ear |
front 325 ear infections are dangerous because when fluids put pressure on the | back 325 Tympanic membrane |
front 326 When stereocilia bend against the tectorial membrane, | back 326 the hair cells depolarize and send impulses to brain |
front 327 Frequency is perceived as pitch.Short wavelength = | back 327 high frequency |
front 328 High frequency sounds displace the _____ closer to the oval window. | back 328 basilar membrane |
front 329 Tectorial membrane is | back 329 stiff and dosent move |
front 330 Used to help body maintain posture and balance | back 330 Equilibrium |
front 331 what membrane slides across hair cells | back 331 Otolithic membrane |
front 332 are bent in direction of slide | back 332 Stereocilia |
front 333 If stereocilia bend toward kinocilium, | back 333 hair cell depolarizes (increases impulse frequency |
front 334 If stereocilia bend away from kinocilium, hair cell | back 334 hyperpolarizes (decreases impulse frequency) |
front 335 Utricle are | back 335 horizontal movements. |
front 336 Saccule are | back 336 vertical movements. |
front 337 Types of Equilibrium -Static | back 337 Linear acceleration forces in a line |
front 338 Types of Equilibrium - Dynamic | back 338 Rotational acceleration forces spinning |
front 339 Dynamic Receptor organ is crista ampullaris, found in ampullae of semicircular canal | back 339 Anterior Posterior Lateral |
front 340 in static equilibrium the Receptor organ is called | back 340 a macula, found in vestibule: |
front 341 the two macula found in the vestibule are | back 341 Utricle, Saccule |
front 342 Receptor organ is crista ampullaris, found in ampullae of | back 342 semicircular canal |
front 343 deep pitch | back 343 longer wave length |
front 344 high pitch | back 344 shorter wave length |
front 345 longer wave length | back 345 pushes down through the scale of Scala vestibuli
|
front 346 shorter wave length | back 346 moves down the scale of media close to stapes |
front 347 Stereocilia are damaged the hair | back 347 brakes off |
front 348 Vision,Proprioreceptors,Vestibular apparatus
| back 348 sense of equilibrium |
front 349 in the Endocrine System the signals are | back 349 hormones |
front 350 Endocrine System Works with nervous system to | back 350 coordinate and control activity of body cells |
front 351 in the Endocrine System Signals | back 351 may persist for long periods |
front 352 in the Endocrine System Signals | back 352 are hormones |
front 353 in the Endocrine System Signals | back 353 Responses are slower |
front 354 in the Endocrine System Signals | back 354 Responses are more prolonged |
front 355 Major Endocrine Glands that produce hormones are | back 355 the hypothalamus, pituitary, thyroid, parathyroids, adrenals, pineal body, and the reproductive organ
|
front 356 Hypothalamus assoiated and connected to it is | back 356 Pituitary GLAND |
front 357 assioated with the brain | back 357 no data |
front 358 decreases in size when you age | back 358 Thymus |
front 359 Endocrine glands lack | back 359 ducts |
front 360 Exocrine glands usually sweat, sebaceous, salivary. | back 360 have ducts |
front 361 Produce chemical messengers called hormones | back 361 Endocrine glands |
front 362 affect distant cells | back 362 Endocrine |
front 363 affect same cell. | back 363 Autocrine |
front 364 affect neighboring cells | back 364 Paracrine |
front 365 Two structural groups of hormones are | back 365 Amino acid based hormones & Lipid hormones |
front 366 Lipid hormones are | back 366 Mostly steroids synthesized from cholesterol.
|
front 367 Amino acid based hormones are | back 367 Amino acids, peptides, and proteins.
|
front 368 Most hormones are regulated by | back 368 negative feedback loops |
front 369 uses a positive feedback loop | back 369 Oxytocin |
front 370 Humoral Stimulus | back 370 A change in the concentration of a substance in body fluids causes hormone release |
front 371 Neural Stimulus | back 371 Nerve fibers innervate the gland and stimulate release |
front 372 Hormonal Stimulus | back 372 Hypothalamus stimulates pituitary to release hormones that stimulate other glands |
front 373 As a whole most of the endocrine hormones are | back 373 Amino acids base |
front 374 Hypothalamus releases | back 374 TRH |
front 375 TRH has a positive effect on the Anterior pituitary causing it to release | back 375 TSH |
front 376 TSH has a positive effect on the Thyroid gland releases | back 376 TH |
front 377 When TH levels increase that acts as an inhibitor on the | back 377 Hypothalamus & pituitary |
front 378 Hormone Receptors Membranous are | back 378 embedded in cell membrane |
front 379 Hormone Receptors Intracellular is | back 379 inside the cell |
front 380 Hormones generally regulate | back 380 homeostasis and slow, long-term processes |
front 381 Receptor Regulation | back 381 A change in the number of cellular receptors |
front 382 A change in the number of cellular receptors | back 382 no data |
front 383 Up-regulation =
| back 383 increase. |
front 384 Receptor Regulation Down-regulation
| back 384 decrease. |
front 385 Up-regulation = | back 385 no data |
front 386 With Type II diabetes mellitus, _____ This makes cells less responsive to insulin | back 386 cells down-regulate insulin receptors. |
front 387 Pituitary Gland Has two lobes | back 387 Anterior lobe adenohypophysis
|
front 388 Hyposecretion in childhood | back 388 Pituitary dwarfism |
front 389 Gigantism (childhood),Acromegaly (adulthood | back 389 Hypersecretion |
front 390 Small gland at posterior of diencephalon | back 390 Pineal |
front 391 Produces melatonin Strong antioxidant.
| back 391 The Pineal Gland |