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Fundamental Question
What is the system of rules and mental representations that underlies our ability to speak and understand a human language?
Scientific Method
make a hypothesis (a possible rule system)
derive predictions (which expressions the rules generates)
check whether all generated expressions are actually used in the language *there are real expressions the rules fails to generate
if all predictions are false, the hypothesis is wrong. If true, hypothesis might be right
Language Acquisition
how children acquire the rules of their first language (s)
What is one way that acquiring a first language is like other instinctive behaviors?
Uniformity across species:
Instincts are shared by all typically developing members of a species (all cardinals sing, all typical humans walk)
Emergence before necessity:
Instinctive behaviors appear before they are “needed” (songbirds learn songs before mating; kids learn to walk before they must)
Children reach full fluency by about age 4, long before they “need” language for complex communication
Automatic Emergence:
Instinctive behavior emerges automatically, not by conscious decision or special training
Uniform Sequence of Milestones
Instinctive behaviors follow a predictable developmental sequence (ex, rolling -> rocking -> crawling -> walking)
Language: 1st language follows a standard sequence of milestones
Impotency of Direct Teaching
Intrinsic behaviors do not change with explicit teaching; you can’t teach a child to walk significantly earlier
What is the name of the gene that seems to govern (first) language development?
FOXP2
voiced
vocal folds vibrate
voiceless
no vibration
bilabial
both lips
[p,b,m]
labiodental
lip and teeth
[f,v]
dental
tongue and teeth
[θ, ð] (thin, then)
alveolar
tongue and alveolar ridge
[t,d,s,z,n,l)
alveopalatal
between the alveolar ridge and palate
[ʃ, ʒ, tʃ, dʒ]
rush, rouge, chump, jump
palatal
tongue body and hard palate
[j]
Velar
tongue and velum
[k, g, ŋ (bang)]
glottal
at vocal folds
[h]
stops
total closure → release
[t]
fricatives
narrow constriction → friction
[s]
affricatives
stop + fricative combo
[tʃ] (chump)
[dʒ] (jump)
high vowel
tongue near roof
[i] “heat”
[u] “hoot”
mid vowel
[e] “hate”
[o] “hope
low vowel
[ae] “hat
[a] “hot”
front vowel
tongue forward
[i], [e], [ae]
central vowel
tongue in the middle
[ɨ], [ʌ], [ə] (roses, cut, Canada)
back vowels
tongue pulled back
[u], [o], [a]
rounded lips (puckered lips)
[u], [o], [ɔ] (caught)
unrounded
*english rounded vowels are usually back vowels
[i], [e], [ae], [a]
tense vowels
longer
tongue more raised
more muscular tension
lax vowels
shorter
more relaxed tongue
onset
beginning consonant
example: cat
k = onset
nucleus
the vowel (required)
example: ae in cat
coda
constants after the vowel
example: cat
t is coda
What are phonotactic constraints?
Phonotactic constraints are rules that determine which sound combinations are allowed in a language
How phonotactic constraints affect syllabification
The syllibification rule must follow phonotactic constraints
This means:
A constant can only become an onset if that onset is allowed in English
Why our rule predicts ‘Onsets over Codas’
when a constant could be either:
a coda of one syllable OR an onset of the rule syllable the rules chooses the onset,
phoneme
A phoneme is a speech sound (phone) as it is stored in memory.
example: /t/
The word top is stored as /tap/
allophone
the actual pronunciation of a sound in a word (written in square brackets)
[th] (aspirated t)
[t] (unaspirated t)
minimal pairs
two words that differ by exactly one sound
what minimal pairs show
two sounds are different phonemes