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36 Cards in this Set
- Front
- Back
Features of Human Language
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Human Language is biologically based
Human Language is universally used by humans Language competence is innate |
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Thoughts Vs. Language
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Thoughts and language are often connected, but can separate:
Thoughts can occur w/out language Nonlinguistic mediums can relay thoughts Multilingual speakers can think in one language and speak another |
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Language Universals
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Language is governed by principles
There are features that all languages have There is info about language that all humans know |
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Theory of Mind
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Perception of oneself as separate from others
Distinguishing b/w thoughts, beliefs, desires, and perceptions of oneself and others Understanding that one does not have access to another's mind |
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Linguistic Performance
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Stringing sounds together (phono)
Forming words (morpho) Generating sentences (syntax) Usage in context (semantics) Production (speaker) --> encoding Preception (hearer) --> decoding |
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Linguistic Comeptence
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Parameters, Constraints, Rules
Lexicon Information stored in your brain which allows speakers to link sound w/ meaning Related to organization of linguistic knowledge |
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Linguistic Performance Vs. Linguistic Competence
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Performance --> How one uses linguistic knowledge
Competence --> What you know about your language |
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Frontal Lobe
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Attention span
Short-term memory Planning Reward/drive |
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Parietal Lobe
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Spatial ability
Visuospatial processing Number knowledge Object manipulation Sensory info |
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Occipital Lobe
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Visual info/capacity
Dreams |
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Temporal Lobe
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Long-term memory
Hearing Word meaning processing |
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Levelt's Model
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3 subdivisions
-conceptualizer +perverbal message: the intention to communicate an idea or thought -Formulator +Phonetic plan -Articulator +Gesture(s) |
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Garrett's Model
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Step 1:
Concept of thought to be communicated Step 2: Semantic content mapped to syntactic functions Function words are accessed Content words are accessed Words are mapped onto syntactic structure Step 3: Sounds are represented phonologically Production |
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TOT
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Brown & McNeil
Speaker cannot retrieve a word Reveals aspects of production process The meaning is present but the phonological rep is not Speakers have access first to lexical info before phono reps |
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Semantic Errors
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Substituting the right word for:
Same part of speech Shared semantic features synonyms/antonyms |
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Bottom up Vs. Top Down
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Bottom up: We preceive phonemes and then the word
Top Down: We use content clues to determine the word. When bottom up works, this is unnecessary. |
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Invariance Problem
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Speech varies depending on context and speech rate
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Segmentation Problem
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Challenge to segment real-time speech into individual phonemes
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Fuzzy Logical (Model)
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Dominic Massaro proposed that we recognize speech sounds not according to binary features(+/-), but according to prototypes. These are perceptual units of language, which are in the mind of the speaker.
There is a fuzzy value corresponding to how likely it is that a sound belongs to a particular speech category. Thus we base our decision on multiple features and/or sources of information even visual information. |
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Slips of the Ear
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Resemble phoneme restoration
The incorrect phoneme is restored |
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The Cohort Model
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Lexical retrieval begins as the initial consonant cluster plus and vowel are preceived by the hearer
Activates all possible candidates The more sounds added the more 'cometitors' deactivated Called "activation and selection" or "recognition and competition" |
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Isolation Point
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The moment that 50% of the subjects correctly identify the word
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Anomalous Word
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A word that can have more than one meaning
If the word constructed is anomalous the brain activity used to identify the word continues. |
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Weakness with the Model
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Input cannot be contaminated. It must be accurate and undistorted so that the phonemes in a word are recognizable up to the isolation point
Words with uncommon initial sounds "dwibble" or replaced by noise In natural speech the hearer cannot always distinguish the end of one word until enough of the next word is heard to rule out the possible continuations of the first word |
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Headedness
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The head of a compound determines its part of speech
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Endocentric
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The compound is a type of its head
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Exocentric
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The compound is not a type of its head
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Copulative
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Denote the total of the meaning of both lexemes
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Appositional
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Each lexeme provides a variant description of the whole
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Principle of Compositionality
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The meaning of a simple or complex expression is fully determined by the meaning of its constituents and its structure
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Productivity
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The notion that a given morpheme has a high frequency of usage
This supports the principle of compositionality. The possiblity of our understanding forms which we have never heard before ("ness", "th") |
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The Morpheme-Based Model
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The surface form of any word is parsed into a sequence which 'could be' a morpheme
Morphological info is represented as distinct and independent morphemes that allow lexical access |
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The Lexeme Model
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Semantic level - concept
Morphological level - lexemes Word level - words Lexical units are directly activated Morphologically complex words as well as root words are constructed w/ their constituent morohemes, and perceived as lexemes (inflections) |
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Semantic Transparency
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"punish/punishment"
can prime for meaning clearly semantically connected |
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Semantic Opacity
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"casualty/casual"
cannot prime for meaning not clearly connected |
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Priming Effects
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Morpheme-based model predicts that pseudo-derived words should produce morphological priming effects in the same way as derived words.
Experiments show that in some circumstances pseudo-derived words induce particular orthographic processes that only a supra-lexical framework can explain |