Quiz 3 Flashcards

(92 cards)

1
Q

What do concepts allow us to do?

A
  • apply general knowledge to new cases
  • draw broad conclusions from experiences
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2
Q

concept of dog

A

how do you know what a dog is?
why do you have expectations when you know that a creature is a dog?

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3
Q

definitional- dog

A

an animal with four legs that barks and wags its tail

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4
Q

problem with the definitional approach

A

it is always possible to find exceptions to our defintions
- tables are flat surfaces with four legs- but what about a table with 3 legs

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5
Q

solution for definitional approach

A
  • focus on family resemblance of members within a category
  • no “defining” features
  • characteristic features across family members
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6
Q

characteristic features

A

e.g., brothers in the Smith family USUALLY have dark hair and glasses- key word is usually

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7
Q

prototype theory

A

the category is characterized by a central member that possesses all the characteristic features (the prototype)
- the most salient features creates one prototype
- does not have to be real

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8
Q

typicality

A

category membership is judged based on typicality

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9
Q

graded membership

A

objects close to a prototype are “better” members of the category than objects farther from the prototype

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10
Q

sentence verification task

A
  • used to test the prototype theory- based on how quick the response is
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11
Q

SVT- robins are birds

A

quick response as it is typical, or similar to the prototype of birds

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12
Q

SVT- penguins are birds

A

slower as it takes longer for the signal to travel because it is further from the prototype

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13
Q

distance and judgements correlation

A

judgements about items that are more distance from the prototype take more time to make

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14
Q

production task

A

-testing the prototype theory- based on category members
- fruits and birds
- participants generally name the most typical category members first- with faster response times

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15
Q

rating tasks

A

items that are closer to the prototype are rated as more typical of the category

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16
Q

fruit

A

when you think of fruit, you generally think about apples

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17
Q

basic level categories- bench

A

too general (superordinate)- furniture

in the middle- bench

too specific (subordinate)- the metal bench outside HSC

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18
Q

basic level categories

A
  • represented by a single word
  • default for naming objects
  • easy-to-explain commonalities
  • basic categories learned first
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19
Q

exemplar-based reasoning

A

in some cases, categorization relies on knowledge about specific category members (exemplars) rather than the prototype

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20
Q

prototypes vs. exemplars

A
  • prototypes provide an economical summary of the category
  • exemplars provide information about category variability, but less economical, and are easier to adjust the categories based on exemplars than prototypes
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21
Q

conceptual knowledge

A
  • a mix of exemplar and prototype
  • early learning often involves exemplars
  • experience often involves averaging exemplars and prototypes
  • with more experience, we can use both exemplars and prototypes to ascertain category membership and recognize objects.
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22
Q

typicality aides

A
  • can aide judgment in prototype/exemplar in category membership, but are often distinct.
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23
Q

atypical features

A
  • do not necessarily exclude category members
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24
Q

Greta Thunberg

A

is/was a highly atypical teenager

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25
typical features
Presence of all typical features does not guarantee category membership
26
Children can agree that
a skunk cannot be turned into a raccoon a toaster can be turned into a coffeeepot
27
beliefs and prior knowledge
- belief in what is typical and required for category members is the most important - beliefs are developed through previous experiences
28
example of beliefs: santa
a person dressed as Santa is still a person but some children may disagree because they have different beliefs
29
resemblance
similarity judgments based on resemblance can be uninformative- we can make mistakes
30
wall outlets example
- if you focus on the right properties, faces and wall outlets are pretty much the same thing
31
essential properties
-we must base similarity judgement on important, essential properties
32
what is important/essential
- based on your prior knowledge
33
typicality influences category judgments
we focus on the features that are important, using resemblance as well
34
typicality effects reveal the substantial role of prototypes and exemplars
helps us see the effect of having prototype, reaction time
35
when using a prototype or exemplar, you rely on a judgment of resemblance
fundamental to theory
36
that judgment of resemblance depends on other knowledge
which attributes to pay attention to? which attributes to ignore?
37
categorization enables us to
apply general knowledge to new cases (see a new dog but know how to approach it safely due to previous experiences) draw broad conclusions from prior experiences (could have bad experiences with dog now fear dogs)
38
inferences can be guided by
typicality (more likely to infer from typical case in typical category) theories/broader beliefs (making connections based on observation using prior knowledge)
39
Concepts can be characterized by
features goal-derived categories relational categories event categories natural kinds versus artifacts living versus nonliving things
40
embodied cognition
proposal that our concepts include representations of perceptual properties and motor sequences
41
hub and spoke model
a "hub" connects and integrates more specialized information (the "spokes") from other brain areas
42
damage to the hub (anterior temporal lobe)
leads to loss of general knowledge- the category itself
43
damage to the spoke (areas outside of atl)
leads to loss of specific knowledge- items within a category
44
connecting concepts
a link between concepts is knowledge
45
travelling the knowledge network
The knowledge we have is embedded within the links there is a push to remove redundancies. If they all the same, common, characteristics, why create multiple nodes? You only need one. There is different distances between different concepts, robin- is a bird, therefore can fly, concept of flying is further away from robin than it is to bird. It should take time to activate the features that are further up. By recognizing links, we should predict the time is should take.
46
some results are problematic with the travelling across network theory
1. sentence verifications are faster if the sentence is about a more prototypical stimulus - a robin is close to the prototype, goose is further, longer to make judgments for geese. 2. the principle of "nonredundancy" does not always hold- there are situations where the common feature seems to be redundantly replicated differently- peacocks, feature of feathers tightly linked, rather than robin
47
propositions
the smallest unit of knowledge that can either true or false
48
nodes
represent concepts and link to form complex concepts
49
propositional networks
local representations- each node represents one concept or idea
50
connectionist networks
distributed representations- each idea is represented by a pattern of activation across the network parallel distributed processing (PDP)
51
organization of language
sentence phrase word morpheme phoneme
52
morpheme
smallest unit that carries meaning
53
phoneme
smallest unit of sound, not carrying any meaning
54
categorization of speech sounds based on:
voicing (using sounds) manner of production (how the air flow is restricted) place of articulation (where you position your lips and tongue)
55
speech segmentation
the "slicing: of a continuous speech stream into appropriate segments
56
coarticulation
in producing speech, adjacent phonemes overlap
57
perception of speech
prior knowledge and expectations supplement the input
58
regularly used vocabulary
surprisingly limited not primed to hear long or infrequent words
59
phonemic restoration effect
top-down processes change what people hear nozzle vs novel brain activation
60
gaps
you replace gaps between sounds with noise, but feel that the sound did not break, so you hear it in completeness
61
context
aides word recognition
62
categorical perception
people are better at hearing differences between categories of sound (g vs. k) than within sound categories (different pronunciations of d)
63
combining phonemes
phonemes-morphemes-words
64
only some combinations of phonemes are acceptable within a language
ex. the sequence tl is not acceptable within a syllable in English- it cannot make one sound
65
rules for adjusting phonemes are based on combinations
ex. the s sound becomes a z in words like "bags"
66
for each word that a speaker knows, the speaker"
knows the words sound usually knows the meaning knows the rules of syntax knows the words semantics
67
generativity
the capacity to create an endless series of new combinations from a small set of fundamental units
68
combinations to align with syntax
when new words are created, they can be combined with other phonemes/morphemes to align with the languages syntax ex. someone who "hacks" would be called a "hacker"
69
syntax
rules that govern the structure of a phrase or sentence
70
meaning does not depend on syntax
ex. "me hungry" can still be understood
71
syntax does not depend on meaning
ex. "colourless green ideas sleep furiously" - Noam Chomsky- cannot be understood
72
syntax
phrase structure: noun phrase-verb phrase-noun phrase
73
prescriptive rules
rules describing how something is "supposed to be" in the language - preference, rules change with time, acceptance with saying new things
74
descriptive rules
rules describing the language as it is ordinarily used by fluent speakers and listeners ex. phrase-structure rules constant- do not change
75
parsing
the process of determining each others syntactic role in a sentence occurs as you read/hear the words
76
garden-path sentences
initially suggest an interpretation that turns out to be incorrect ex. you need to revisit your parsing
77
examples of garden-path sentences
the secretary applauded for his efforts was soon promoted. the old man the ships. The horse raced past the barn fell.
78
interpretations are further influences by
function words morphemes signalling syntactic roles (ex. "-ly" signals adverbs background knowledge
78
people tend to
seek the simplest interpretation assume active-voice
79
extralinguistic context
the physical and social setting in which we encounter sentences
80
prosody
the patterns of pauses and pitch changes that characterize speech production
81
pragmatic rules
rules that govern how people actually use language ex. conversational "rules" expect you to be cooperative when conversing
82
common ground
participants in conversations fill in gaps by drawing on their common ground often established in early stages of conversation
83
biology of language
fluent language seems to depend on innate neural machinery
84
evidence of innate neural machinery
aphasias: nonfluent (Broca's) vs. fluent (Wernicke's) most kids converse well at age 3-4 specific language impairment (interferes with the development of language skills in children do not have hearing loss, if there is no other cause)
85
neural machinery seems to depend on language exposure
wild/wolf children ex. Ramu who was raised by wolves - we cannot remake this as it is unethical
86
active learning
children are sensitive to patterns and regularities, deriving broad principles from what they hear add "-ed" to make verb past tense by approx 3 years old
87
overregularization error
an error in which a person perceives or remembers a word/event as being closer to the "norm" than it really is ex. "yesterday, i thinked," or "look at those cute gooses"
88
linguistic relativity
the hypothesis that people who speak different languages think differently as a result eg. a language's colour vocabulary and categorization may affect how its speakers perceive and remember colour
89
spatial terminology
absolute directions (east or west) versus relative directions (left or right)
90
descriptions of events
active voice (sam made a mistake) versus passive voice (mistakes were made) memory for agents in accidents
91
bilingualism
children raised in bilingual homes learn both languages as quickly as monolingual children learn one language tendency to have temporarily smaller vocabularies than monolingual children at an early age expectation that bilingual children would confuse language has not been upheld