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Test your basic knowledge |
GRE Psychology: Physiological/behavioral Neuroscience 1
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Subjects
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gre
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psychology
Instructions:
Answer 50 questions in 15 minutes.
If you are not ready to take this test, you can
study here
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Match each statement with the correct term.
Don't refresh. All questions and answers are randomly picked and ordered every time you load a test.
This is a study tool. The 3 wrong answers for each question are randomly chosen from answers to other questions. So, you might find at times the answers obvious, but you will see it re-enforces your understanding as you take the test each time.
1. Used to implant electrodes into animals' brains in experiments
Broca'S aphasia
Autonomic nervous system (subsystems)
resting potential
Stereotaxic instruments
2. PNS fibers that run away from CNS (to cause effect the brain wants)
Steps in neural transmission
Alpha waves
Efferent fibers
Antagonists
3. Divided into diencephalon and telencephalon
Spine (subsystem)
Forebrain (division)
Agonists
Tegmentum
4. 16 hours of sleep a day - 6 hours
Delta waves
Sleep hours for infants and elderly respectively
Relative refractory period
Gray matter
5. Aka cell body. largest central portion - and make up gray matter - has a nucleus that directs neuron'S activity
Soma
Myelencephalon
Sleep hours for infants and elderly respectively
Dendrites
6. Time after a neuron fires which it cannot respond to stimulation
Parasympathetic nervous system
Postsynaptic cell
Absolute refractory period
Thyroid stimulating hormone
7. Fatty - insulating sheath on some axons for faster conduction of axon impulses
Myelin sheath
Acetylcholine
White Matter
Non-REM sleep (4 stages of sleep)
8. Outer half-inch of cerebral hemispheres; - sensory and intellectual functions; - split into frontal - occipital - parietal - temporal lobes; - 90% is neocortex (new in evolution - 6 layers cortex) - 10% < 6 layers and more primitive
Cerebral cortex (subsystem)
Inferior colliculus
Adrenocorticotropic hormone (ACTH)
Theta waves
9. Of cerebral cortex - responsible for somatosensory system
Parietal lobe
Thyroid stimulating hormone
Autonomic nervous system (subsystems)
Activational hormones
10. Of pituitary - stress hormone - increases androgen and cortisol production
Nodes of Ranvier
Schwann cells
Adrenocorticotropic hormone (ACTH)
Neuron
11. Covers whole neuron - selective permeability - sometimes lets ions (positive charge) through
Sympathetic nervous system
Rapid Eye Movement sleep
Cell membrane
Afferent fibers
12. Transmits impulses of neuron - bundles of these are nerve fibers (white matter); the wider nerve fiber - the faster its conduction
Diencephalon
Neuromodulators
androgens (example)
Axon
13. Of mesencephalon - rest of reticular formation; Also involved in the sensorimotor system - analgesic effect of opiates
Female menstrual cycle (hormones)
Delta waves
Absolute refractory period
Tegmentum
14. Dysfunction in certain cortical association area - language disorder from damage to Wernicke'S area - in left temporal lobe; can speak but doesn'T understand how to correctly choose words (fluent but nonsensical)
15. An amino acid - most abundant excitatory neurotransmitter.
Endorphins
Glutamate
postsynaptic potentials
oxytocin
16. Extension of the spine - developed from base to the front
Brain evolution
Telencephalon
Amygdala
Pituitary gland
17. Chambers filled with cerebrospinal fluid that insulate brain from shock
Theta waves
Cingulate gyrus
Telencephalon
Ventricles
18. Hyperpolarization - + let out - - compared to outside - decrease firing
Oligodendrocytes
Absolute refractory period
Inhibitory postsynaptic potential
Monoamines
19. Holds neurotransmitters
Frontal lobe
Synaptic vessels
Postsynaptic cell
Endorphins
20. Of diencephalon - channels sensory information to cerebral cortex
Diencephalon
Rebound effect
Reticular formation
Thalamus
21. ANS - recuperation after arousal (decrease HR - BP - respiration)
estrogen
Parasympathetic nervous system
Temporal lobe
Telencephalon
22. Fast frequency bursts of brain activity - inhibits processing to keep tranquil state
Endorphins
Adrenocorticotropic hormone (ACTH)
Broca'S aphasia
Sleep spindles
23. Control large voluntary muscle movements - Their degeneration is related to motor dysfunction in Parkinson'S and Huntington'S
Inhibitory postsynaptic potential
Beta waves
Basal ganglia
Saltatory conduction
24. Of mesencephalon - vision and hearing
Autonomic nervous system
Tectum
Afferent fibers
Monoamines
25. The process after a neurotransmitter has done its job - it is reabsorbed by the presynaptic cell
Schwann cells
Theta waves
Neuromodulators
reuptake
26. For female - the onset of the menstrual cycles - occurs during puberty
Indolamines
estrogen
menarche
Inhibitory postsynaptic potential
27. Made of thalamus and hypothalamus
Agonists
oxytocin
Axon
Diencephalon
28. Made up of brain and spinal cord
Central Nervous System (CNS)
Electroencephalogram
Female menstrual cycle (hormones)
Cell membrane
29. Where soma and axon connect
Vasopressin
Axon hillock
Occipital lobe
Hyperphagia
30. Fissures seen on cortex surface
Organizational hormones
Frontal lobe
Axon
Sulci
31. An amino acid - most abundant inhibitory neurotransmitter
Gamma-aminobutyric acid (GABA)
Oligodendrocytes
Schwann cells
Glial cells
32. Measures oxygen flow in different brain areas - used most in cognitive psych to measure activity in different brain regions during certain tasks
Nodes of Ranvier
Hindbrain
Monoamines
fMRI
33. Of diencephalon - controls autonomic nervous system biological motivations (hunger - thirst) and pituitary gland
Limbic system
Hypothalamus
Neurotransmitters
Autonomic nervous system (subsystems)
34. Once minimum threshold is met - intensity always the same regardless of amount of stimulation
Sleep spindles
Catecholamines
All-or-none law
Blooming and pruning
35. Of Hindbrain - aka medulla; Mainly controls for reflexes - but also controls sleep - attention - movement
Hyperphagia
Myelencephalon
Synapse gap
Autonomic nervous system (subsystems)
36. Positron emission tomography - scans glucose metabolism to measure activity in various brain regions
Rebound effect
PET
Monoamines
Parasympathetic nervous system
37. Of telencephalon - links brain areas dealing with emotion and decisions
Autonomic nervous system
fMRI
Cingulate gyrus
Neuron
38. Bumps on the brainstem - controls visual reflexes
Somatic nervous system
Pituitary gland
Superior colliculus
Saltatory conduction
39. Stage 1 & 2 non-REM sleep (with sleep spindles) - lower-amplitude and slower frequency waves
Theta waves
Indolamines
Agraphia
Sleep cycles
40. Decrease effects of a neurotransmitter (e.g. botox is an acetylecholine antagonist that decreases muscle activity)
Stereotaxic instruments
Antagonists
Alpha waves
Absolute refractory period
41. Low-amplitude and fast -frequency alpha waves
Neural synchrony
Peripheral nervous system (subsystems)
White matter
Myelencephalon
42. Of pituitary - activates thyroid
White Matter
Thyroid stimulating hormone
Amino acids
Adrenocorticotropic hormone (ACTH)
43. Inner core of spine - cell bodies and dendrites
Indolamines
Gray matter
Spine (subsystem)
menarche
44. Midbrain; contains tectum and tegmentum
Luteinizing hormone (LH) and follicle stimulating hormone (FSH)
Mesencephalon
Schwann cells
Hippocampus
45. Controlled by hypothalamus - regulation of hormones in the body - The 'master gland' of the endocrine/hormone system
Activational hormones
Wernicke'S aphasia
Pituitary gland
Terminal buttons
46. Presence during development causes a fetus to develop into a male (absence cause the fetus to develop into a female)
Neurotransmitters
H-Y antigen
Cingulate gyrus
Tectum
47. Increase effects of a neurotransmitter (e.g. selective serotonin reuptake inhibitors [for depression] increase serotonin activity)
All-or-none law
Frontal lobe
Agonists
Pituitary gland
48. Gray matter - white matter
Limbic system
Spine (subsystem)
Amygdala
Cortical association areas
49. Measures brain wave patterns and have made it possible to study waking and sleeping states
Cerebral cortex (subsystem)
Electroencephalogram
Parietal lobe
reuptake
50. Occur during specific periods in development - permanent or long-lasting effects; - presence of H-Y antigen in development causes fetus to develop into a male - absence to female; - androgens in males and estrogen in females causes secondary sex cha
H-Y antigen
Organizational hormones
Brain evolution
Blooming and pruning