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• This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information.

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Page 1: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information.

Page 2: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• This kind of processing begins higher-level mental processes that draw on our experiences and expectations.

Page 3: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• The absolute threshold is the minimum stimulus needed to detect a particular stimulus ______ % of the time.

Page 4: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• This theory predicts that detection depends on a person’s experience, expectations and level of fatigue, rather than on an absolute threshold. It suggests that reactions to the same stimuli vary as circumstances change.

Page 5: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• These stimuli are those that are below the absolute threshold and are unconsciously detected.

Page 6: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• An imperceptibly brief stimulus may be detected outside our conscious awareness and influence our responses. This is known as __________.

Page 7: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• The minimum difference between two stimuli required for detection 50% of the time is called the __________ or the just noticeble difference.

Page 8: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• Weber’s Law states that to be perceived as different, two stimuli must differ by a constant minimum ____________, not a constant amount.

Page 9: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• After several minutes of being exposed to the cold of Lake Michigan while swimming, you no longer feel cold. This is an example of __________.

Page 10: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• At any moment our awareness focuses on only a limited aspect of what we experience. This is known as _________.

Page 11: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• While watching a video of basketball game, people attending to counting the number of ball passes failed to notice a gorilla intruding on the game. This is one example of ____________.

Page 12: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• In sensation, this is the transformation of energy (light, mechanical, sound, etc.) into neural impulses.

Page 13: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• The energy stimulus for vision.

Page 14: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• Light’s ______, or the distance between a wave’s maximum (or minimum) height, is what determines its hue, or color we experience.

Page 15: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• Light’s ___________ is determined by the amplitude of the wave.

Page 16: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• This part of the eye is the adjustable opening in the center through which light enters.

Page 17: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• This muscle around the eye’s pupil controls the size of the pupil opening, and is the colored part of the eye.

Page 18: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• This transparent structure behind the eye’s pupil changes shape to focus images on the retina.

Page 19: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• This is the process by which the lens changes its curvature to focus near or far objects on the retina.

Page 20: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• This is the light-sensitive inner surface of the eye that contains the receptor cells of rods and cones plus layers of neurons that are involved in the process of visual processing.

Page 21: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• These receptor cells in the visual system allow us to detect black, white and grey.

Page 22: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• These receptor cells in the visual system allow us to see color and fine detail.

Page 23: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• Cones are located in the center of the retina, or the ________.

Page 24: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• Cones are most sensitive in ________ light.

Page 25: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• Rods are located in the ________ of the retina, and enable peripheral vision.

Page 26: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• Rods are sensitive in ________ light.

Page 27: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• Information from the rods and cones is processed through these cells before relay to the ganglion cells.

Page 28: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• The ganglion cells in the retina converge to form this.

Page 29: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• Where the optic nerve leaves the eye there are no receptor cells, which results in a ____________.

Page 30: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• This area of the retina has the best acuity.

Page 31: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• Information from the retina is directed to the visual cortex via the ________.

Page 32: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• Nocturnal animals have visual systems that function well in dim light. Their receptor cells are almost entirely _____.

Page 33: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• Located in the visual cortex in the occipital lobe, these specialized cells receive information about lines, edges, angles and movements from the ganglion cells.

Page 34: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• When we process several aspects (color, depth, movement, form) of a visual scene simultaneously, it is called _______________.

Page 35: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• This theory of color vision states that the retina contains receptors for red, green and blue light.

Page 36: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• When both red and green color receptors are activated, the color we experience is __________.

Page 37: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• Most color blind people lack functioning _____ and _____ cones.

Page 38: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• This theory of color vision says that color is analyzed in terms of red and green, blue and yellow, or black and white.

Page 39: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• If you stare at a green image and then look at white paper, the afterimage will appear _________.

Page 40: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• If you stare at a yellow figure and then look at a white paper, the afterimage will appear _________.

Page 41: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• In changing illumination, our perception of color remains _________.

Page 42: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• The stimulus energy of audition is ______.

Page 43: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• A long sound wavelength results in ______ frequency sounds.

Page 44: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• A small sound wave amplitude results in _________ sounds.

Page 45: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• The ________ in the ear contains the auditory system’s receptor cells.

Page 46: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• The middle ear contains these 3 tiny bones.

Page 47: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• Located in the cochlea, fluid vibrates on the ________, bending its hair cells to send neural messages to the auditory nerve.

Page 48: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• These are the receptor cells of the auditory system.

Page 49: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• Auditory information from the right ear is sent via the thalamus to the auditory cortex located in the ___________.

Page 50: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• Damage to the hair cells in the basilar membrane is the most likely cause of ______________.

Page 51: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• This theory of audition links the pitch we hear with the location where the cochlea’s membrane is stimulated.

Page 52: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• The frequency theory of audition says that the rate of nerve impulses traveling up the auditory nerve matches the frequency of a tone, enabling us to sense its _______.

Page 53: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• Where are the receptor cells for the sense of touch located?

Page 54: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• What 4 distinct skin senses comprise our sense of touch?

Page 55: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• Touch receptors send signals to the sensory cortex via what brain structure?

Page 56: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• Touch sensations are processed in the sensory cortex, which is located in which lobe?

Page 57: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• Gate-control theory states that the spinal cord contains a neurological “gate” that either blocks these signals or allows them to pass on to the brain. What are these signals?

Page 58: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• Drugs, surgery, acupuncture, electrical stimulation, massage, exercise, hypnosis, relaxation training and thought distraction are all therapies used for _______.

Page 59: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• Name the 2 chemical senses.

Page 60: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• Where are taste receptor cells located?

Page 61: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

The aroma of food enhances its perceived taste. This is an example of __________.

Page 62: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• What is olefaction?

Page 63: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• Where are smells processed?

Page 64: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• What is unique about how the brain processes smells?

Page 65: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• Smell is linked to parts of the limbic system involved in ________ and _______.

Page 66: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• The system for sensing the position and movement of individual body parts such as your arms and legs is ___________.

Page 67: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• This sense monitors head and body position and movement, including our sense of balance and orientation.

Page 68: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• The receptor cells for position and movement, or kinesthesis, are located in these 3 places.

Page 69: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• The receptor cells for the vestibular sense (balance and position) are located in the ________________ in the inner ear.

Page 70: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• What group of psychologists are most associated with perceptual organization?

Page 71: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• That we perceive individual rows of white dots followed by individual rows of black dots illustrates what law of perceptual organization?

Page 72: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• That we perceive a complete circle or complete square when presented with the following drawing best illustrates which law of perceptual organization?

Page 73: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• That we perceive the first set of dots as a whole, and the second set as 3 groups best illustrates which law of perceptual organization?

Page 74: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• The ability to organize 2-dimensional images into 3-dimensional perceptions is known as ____________.

Page 75: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• The law of perceptual organization that states we organize the visual field into objects and surroundings.

Page 76: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• We use this laboratory device to test depth perception in infants.

Page 77: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• In depth perception, these kind of cues depend on the ability to use both eyes.

Page 78: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• In depth perception, these cues depend on the use of only 1 eye.

Page 79: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• Name this binocular cue: the extent to which the eyes draw inward when looking at an object.

Page 80: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• Name this binocular cue: the brain compares images from each eye and computes the distance between them.

Page 81: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• If the brain computes a great disparity between 2 retinal images, it will interpret the object as being _____________.

Page 82: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• Name this monocular cue: a gradual change from coarse texture to fine texture signals increasing distance.

Page 83: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• Name this monocular cue: objects higher in the visual field are interpreted as being farther away.

Page 84: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• Name this monocular cue: As we move, objects that are actually stable may appear to move. The nearer the object is to you, the faster it will appear to move.

Page 85: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• Name this monocular cue: Parallel lines appear to converge in the distance. The more they converge, the greater the perceived distance.

Page 86: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• Name this monocular cue: Nearby objects reflect more light. A dimmer object appears farther away.

Page 87: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• This is an illusion of movement created when two or more adjacent lights blink on and off in quick succession.

Page 88: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• We perceive objects to be unchanging even as light and retinal images change. This is known as __________.

Page 89: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• Shape constancy predicts that we perceive an object as unchanging even though the ________ changes.

Page 90: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• Size constancy says that we perceive objects to be unchanging even as our __________ changes.

Page 91: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• The size-distance relationship between an object’s perceived distance and its image on our retina can lead to optical illusions such as the _________.

Page 92: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• When someone is fitted with special glasses that invert the retinal image, they quickly adapt to the new sensation. This illustrates the concept of ____________.

Page 93: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• Our experiences, expectations and assumptions predispose us to perceive objects in a certain way. These mental predispositions are called our ___________.

Page 94: This kind of processing begins with our sense receptors and works up to our brain’s integration of this sensory information

• Our experiences, expectations and assumptions predispose us to perceive objects in a certain way. These mental predispositions best illustrate what kind of processing?