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The Semantics of R A: Lets be more specific! Masoud Jasbi Stanford University 1 Snapshot Definiteness = existence presup + uniqueness presup. 2 Snapshot Definiteness = existence presup + uniqueness presup. In Farsi, R a


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The Semantics of R¯ A: Let’s be more specific!

Masoud Jasbi Stanford University

1

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SLIDE 2

Snapshot

  • Definiteness = existence presup + uniqueness presup.

2

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SLIDE 3

Snapshot

  • Definiteness = existence presup + uniqueness presup.
  • In Farsi, R¯

a provides the existence presupposition.

2

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SLIDE 4

Snapshot

  • Definiteness = existence presup + uniqueness presup.
  • In Farsi, R¯

a provides the existence presupposition.

  • The uniqueness presupposition is provided by the absence of

indefinite markers.

2

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SLIDE 5

Snapshot

  • Definiteness = existence presup + uniqueness presup.
  • In Farsi, R¯

a provides the existence presupposition.

  • The uniqueness presupposition is provided by the absence of

indefinite markers.

a’s existence presupposition is compatible with indefinites.

2

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SLIDE 6

Previously on R¯ A . . .

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SLIDE 7

Semantic Accounts of R¯ A

  • 1. Specific
  • Epistemic

(Karimi, 1990)

  • Scopal
  • 2. Definite

(Mahootian, 1997), among others

  • 3. Existentially Presupposed
  • Topical (secondary)

(Dabir-Moghaddam, 1992; Dalrymple and Nikolaeva, 2011)

  • Identifiable

(Shokouhi and Kipka, 2003)

  • Partitively Specific

(Karimi, 1999, 2003)

  • Existentially Presupposed

(Ghomeshi, 1996) 3

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SLIDE 8

To-Do’s!

  • Define some semantic primitives: existence, uniqueness, and

common ground.

4

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SLIDE 9

To-Do’s!

  • Define some semantic primitives: existence, uniqueness, and

common ground.

  • Define specific, definite, and existentially presupposed using the

primitives.

4

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SLIDE 10

To-Do’s!

  • Define some semantic primitives: existence, uniqueness, and

common ground.

  • Define specific, definite, and existentially presupposed using the

primitives.

  • Map the hypothesis space.

4

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SLIDE 11

To-Do’s!

  • Define some semantic primitives: existence, uniqueness, and

common ground.

  • Define specific, definite, and existentially presupposed using the

primitives.

  • Map the hypothesis space.
  • Show the problems with the specificity hypothesis.

4

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SLIDE 12

To-Do’s!

  • Define some semantic primitives: existence, uniqueness, and

common ground.

  • Define specific, definite, and existentially presupposed using the

primitives.

  • Map the hypothesis space.
  • Show the problems with the specificity hypothesis.
  • Show the problems with the definiteness hypothesis.

4

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SLIDE 13

To-Do’s!

  • Define some semantic primitives: existence, uniqueness, and

common ground.

  • Define specific, definite, and existentially presupposed using the

primitives.

  • Map the hypothesis space.
  • Show the problems with the specificity hypothesis.
  • Show the problems with the definiteness hypothesis.
  • Provide more data for the presuppositional hypothesis.

4

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SLIDE 14

To-Do’s!

  • Define some semantic primitives: existence, uniqueness, and

common ground.

  • Define specific, definite, and existentially presupposed using the

primitives.

  • Map the hypothesis space.
  • Show the problems with the specificity hypothesis.
  • Show the problems with the definiteness hypothesis.
  • Provide more data for the presuppositional hypothesis.
  • Provide a compositional account of definites and simple indefinites.

4

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SLIDE 15

To-Do’s!

  • Define some semantic primitives: existence, uniqueness, and

common ground.

  • Define specific, definite, and existentially presupposed using the

primitives.

  • Map the hypothesis space.
  • Show the problems with the specificity hypothesis.
  • Show the problems with the definiteness hypothesis.
  • Provide more data for the presuppositional hypothesis.
  • Provide a compositional account of definites and simple indefinites.

5

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SLIDE 16

Defining the Primitives

Definition A nominal implies existence if it denotes a nonempty set (∣NP∣ ≥ 1).

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Defining the Primitives

Definition A nominal implies existence if it denotes a nonempty set (∣NP∣ ≥ 1). Definition A nominal implies uniqueness if it denotes a singleton set (∣NP∣ = 1).

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Defining the Primitives

Definition A nominal implies existence if it denotes a nonempty set (∣NP∣ ≥ 1). Definition A nominal implies uniqueness if it denotes a singleton set (∣NP∣ = 1). Definition common ground is the mutually recognized shared information between the speaker(s) and the addressee(s).

(Stalnaker, 1978) 6

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Defining the Primitives

Definition A nominal implies existence if it denotes a nonempty set (∣NP∣ ≥ 1). Definition A nominal implies uniqueness if it denotes a singleton set (∣NP∣ = 1). Definition common ground is the mutually recognized shared information between the speaker(s) and the addressee(s).

(Stalnaker, 1978)

Definition An implication is presuppositional if it is entailed or implied by the common ground.

6

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SLIDE 20

To-Do’s!

  • Define some semantic primitives: existence, uniqueness, and

common ground.

  • Define specific, definite, and existentially presupposed using the

primitives.

  • Map the hypothesis space.
  • Show the problems with the specificity hypothesis.
  • Show the problems with the definiteness hypothesis.
  • Provide more data for the presuppositional hypothesis.
  • Provide a compositional account of definites and simple indefinites.

7

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SLIDE 21

Defining The Accounts of R¯ a

Definition A nominal that implies the existence and uniqueness of its descriptive content is specific.

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Defining The Accounts of R¯ a

Definition A nominal that implies the existence and uniqueness of its descriptive content is specific. Definition A nominal that presupposes the existence and uniqueness of its descriptive content is definite.

(Russell, 1905; Strawson, 1950) 8

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SLIDE 23

Defining The Accounts of R¯ a

Definition A nominal that implies the existence and uniqueness of its descriptive content is specific. Definition A nominal that presupposes the existence and uniqueness of its descriptive content is definite.

(Russell, 1905; Strawson, 1950)

Definition A nominal that presupposes the existence of its descriptive content is existentially presupposed.

8

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SLIDE 24

To-Do’s!

  • Define some semantic primitives: existence, uniqueness, and

common ground.

  • Define specific, definite, and existentially presupposed using the

primitives.

  • Map the hypothesis space.
  • Show the problems with the specificity hypothesis.
  • Show the problems with the definiteness hypothesis.
  • Provide more data for the presuppositional hypothesis.
  • Provide a compositional account of definites and simple indefinites.

9

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SLIDE 25

Hypothesis Space

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SLIDE 26

Hypothesis Space

Which hypothesis best covers the r¯ a data?

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SLIDE 27

To-Do’s!

  • Define some semantic primitives: existence, uniqueness, and

common ground.

  • Define specific, definite, and existentially presupposed using the

primitives.

  • Map the hypothesis space.
  • Show the problems with the specificity hypothesis.
  • Show the problems with the definiteness hypothesis.
  • Provide more data for the presuppositional hypothesis.
  • Provide a compositional account of definites and simple indefinites.

11

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SLIDE 28

Types of Specificity (Farkas, 1994)

  • Specific := Unique, fixed referent.

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SLIDE 29

Types of Specificity (Farkas, 1994)

  • Specific := Unique, fixed referent.
  • 1. Epistemic: the speaker has a fixed referent in mind.

(Fodor and Sag, 1982)

  • 2. Scopal: the referent is fixed with respect to other semantic operators

(wide scope).

12

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SLIDE 30

Types of Specificity (Farkas, 1994)

  • Specific := Unique, fixed referent.
  • 1. Epistemic: the speaker has a fixed referent in mind.

(Fodor and Sag, 1982)

  • 2. Scopal: the referent is fixed with respect to other semantic operators

(wide scope).

  • Neither work for r¯

a.

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SLIDE 31

Epistemic Specificity

a appears on nominals that are not epistemically specific. (R¯ a / ⇒ Epistemically Specific)

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Epistemic Specificity

a appears on nominals that are not epistemically specific. (R¯ a / ⇒ Epistemically Specific) Example (1)

Context: My three-year-old cousin takes my phone and accidentally deletes a picture. I see that my pics are 99 instead of 100 but I don’t know which picture is deleted:

ne-mi-dun-am

NEG-MI-know-1.SG

kodum which aks- o pic-OM in this bache kid p¯ ak clean karde do.PST.3.SG “I don’t know which picture this kid has deleted.”

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SLIDE 33

Epistemic Specificity

a appears on nominals that are not epistemically specific. (R¯ a / ⇒ Epistemically Specific) Example (2)

Context: There are some plates on the table.

ye

ID

boshq¯ ab- o plate-OM be-de give “Give me a plate!”

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SLIDE 34

Epistemic Specificity

  • Epistemically specific referents can appear without R¯

a. (Epistemically Specific / ⇒ R¯ a)

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Epistemic Specificity

  • Epistemically specific referents can appear without R¯

a. (Epistemically Specific / ⇒ R¯ a) Example (3) diruz yesterday ye

ID

xune house did-im see.PST-3.PL tu in Fereshteh Fereshteh “We saw a house in Fereshteh yesterday.”

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SLIDE 36

Scopal Specificity

a appears on nominals that are not scopally specific (are not wide scope). (R¯ a / ⇒ Scopally Specific)

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Scopal Specificity

a appears on nominals that are not scopally specific (are not wide scope). (R¯ a / ⇒ Scopally Specific) Example (4)

Context: Dance Class; Equal number of girls and boys. Boys have to choose partners.

har each pesar-i boy-IC ye

ID

doxtar- o girl-OM entex¯ ab choose kard do.PST-3.PL “Every boy chose a girl.” (∀ > ∃)

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Scopal Specificity

a appears on nominals that are not scopally specific (are not wide scope). (R¯ a / ⇒ Scopally Specific) Example (5)

Context: Maryam has three job offers. She has to pick one by tomorrow.

mi-x¯ ad

MI-want3.SG

ye

ID

k¯ ar- o job-OM t¯ a until fard¯ a tomorrow qabul accept kon-e do.PST-3.PL vali but hanu yet ne-mi-dun-e

NEG-MI-know-3.SG

kodum-o which-OM “She wants to accept a job by tomorrow but she still doesn’t know which” (want > ∃)

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SLIDE 39

Scopal Specificity

  • Scopally specific referents can appear without R¯

a. (Scopally Specific / ⇒ R¯ a) Example (6)

Context: A Boring Restaurant where everyone always orders burgers. The waiter says:

inja here hame each hamishe boy-IC ye

ID

qaz¯ a girl sef¯ aresh choose midan do.PST-3.PL “Everyone always orders the same food here.” (∃ > ∀ > ∀)

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Scopal Specificity

  • Generally, hard to find a correlation between scope and object

marking. Example (7)

Context: Dance Class.

hame-ye all-EZ pesar-¯ a boy-PL ye

ID

doxtar- o girl-OM dust friend d¯ ar-an have.PST-3.PL “All the boys love some girl.” (∀ > ∃) “There is a girl that all the boys love.” (∃ > ∀)

19

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SLIDE 41

Hypothesis Space

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SLIDE 42

To-Do’s!

  • Define some semantic primitives: existence, uniqueness, and

common ground.

  • Define specific, definite, and existentially presupposed using the

primitives.

  • Map the hypothesis space.
  • Show the problems with the specificity hypothesis.
  • Show the problems with the definiteness hypothesis.
  • Provide more data for the presuppositional hypothesis.
  • Provide a compositional account of definites and simple indefinites.

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Definiteness

Example (8)

ContextE+U+: There is a room. Ali goes in. There is a mouse.

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Definiteness

Example (8)

ContextE+U+: There is a room. Ali goes in. There is a mouse.

  • a. mush- o

mouse-OM mi-bin-e

MI-see-3.SG

“He sees the mouse.”

  • b. # ye

ID

mush- o mouse-OM mi-bin-e

MI-see-3.SG

“He sees a mouse.”

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SLIDE 45

Definiteness

Example (8)

ContextE+U+: There is a room. Ali goes in. There is a mouse.

  • a. mush- o

mouse-OM mi-bin-e

MI-see-3.SG

“He sees the mouse.”

  • b. # ye

ID

mush- o mouse-OM mi-bin-e

MI-see-3.SG

“He sees a mouse.”

  • ø-NP-r¯

a presupposes uniqueness.

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SLIDE 46

Definiteness

Example (9)

ContextE+U−: There is a room. Ali goes in. There are two mice.

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SLIDE 47

Definiteness

Example (9)

ContextE+U−: There is a room. Ali goes in. There are two mice.

  • a. # mush- o

mouse-OM mi-bin-e

MI-see-3.SG

“He sees the mouse.”

  • b. ye

ID

mush- o mouse-OM mi-bin-e

MI-see-3.SG

“He sees a mouse.”

23

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SLIDE 48

Definiteness

Example (9)

ContextE+U−: There is a room. Ali goes in. There are two mice.

  • a. # mush- o

mouse-OM mi-bin-e

MI-see-3.SG

“He sees the mouse.”

  • b. ye

ID

mush- o mouse-OM mi-bin-e

MI-see-3.SG

“He sees a mouse.”

  • ø-NP-r¯

a presupposes uniqueness.

  • ye-NP-r¯

a does not presuppose uniqueness.

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SLIDE 49

Definiteness

Example (9)

ContextE+U−: There is a room. Ali goes in. There are two mice.

  • a. # mush- o

mouse-OM mi-bin-e

MI-see-3.SG

“He sees the mouse.”

  • b. ye

ID

mush- o mouse-OM mi-bin-e

MI-see-3.SG

“He sees a mouse.”

  • ø-NP-r¯

a presupposes uniqueness.

  • ye-NP-r¯

a does not presuppose uniqueness.

  • Since definites presuppose existence AND uniqueness, r¯

a cannot be a definiteness marker.

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SLIDE 50

Definiteness

Example (9)

ContextE+U−: There is a room. Ali goes in. There are two mice.

  • a. # mush- o

mouse-OM mi-bin-e

MI-see-3.SG

“He sees the mouse.”

  • b. ye

ID

mush- o mouse-OM mi-bin-e

MI-see-3.SG

“He sees a mouse.”

  • ø-NP-r¯

a presupposes uniqueness.

  • ye-NP-r¯

a does not presuppose uniqueness.

  • Since definites presuppose existence AND uniqueness, r¯

a cannot be a definiteness marker.

a can presuppose existence and be half of definiteness!

23

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SLIDE 51

Hypothesis Space

24

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SLIDE 52

To-Do’s!

  • Define some semantic primitives: existence, uniqueness, and

common ground.

  • Define specific, definite, and existentially presupposed using the

primitives.

  • Map the hypothesis space.
  • Show the problems with the specificity hypothesis.
  • Show the problems with the definiteness hypothesis.
  • Provide more data for the presuppositional hypothesis.
  • Provide a compositional account of definites and simple indefinites.

25

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SLIDE 53

Presupposed Existence

Example

ContextE+U−: There is a room. Ali goes in. There are two mice.

26

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SLIDE 54

Presupposed Existence

Example

ContextE+U−: There is a room. Ali goes in. There are two mice.

(10)

  • a. # ye

ID

mush mouse mi-bin-e

MI-see-3.SG

“He sees a mouse.”

  • b. ye

ID

mush- o mouse-OM mi-bin-e

MI-see-3.SG

“He sees a mouse.”

26

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SLIDE 55

Presupposed Existence

Example

ContextE−U−: There is a room. Ali goes in.

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SLIDE 56

Presupposed Existence

Example

ContextE−U−: There is a room. Ali goes in.

(11)

  • a. ye

ID

mush mouse mi-bin-e

MI-see-3.SG

“He sees a mouse.”

  • b. # ye

ID

mush- o mouse-OM mi-bin-e

MI-see-3.SG

“He sees a mouse.”

27

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SLIDE 57

Presupposed Existence

Example

ContextE−U−: There is a room. Ali goes in.

(11)

  • a. ye

ID

mush mouse mi-bin-e

MI-see-3.SG

“He sees a mouse.”

  • b. # ye

ID

mush- o mouse-OM mi-bin-e

MI-see-3.SG

“He sees a mouse.”

a presupposes the existence of its descriptive content.

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SLIDE 58

Prediction: Denying the Existence

  • Explicitly denying the existence presupposition results in infelicity.

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Prediction: Denying the Existence

  • Explicitly denying the existence presupposition results in infelicity.

Example (12) Ali Ali emruz today k¯ ar-i work-IC na-d¯ asht

NEG-have.PST

v¯ ase for hamin this k¯ ar-i work-IC anj¯ am finish na-d¯ ad

NEG-give.PST.3SG

“Today Ali didn’t have anything to do so he didn’t do anything.”

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SLIDE 60

Prediction: Denying the Existence

  • Explicitly denying the existence presupposition results in infelicity.

Example (13) # Ali Ali emruz today k¯ ar-i work-IC na-d¯ asht

NEG-have.PST

v¯ ase for hamin this k¯ ar-i- ro work-IC-OM anj¯ am finish na-d¯ ad

NEG-give.3SG

“Today Ali didn’t have anything to do so he didn’t do anything.”

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SLIDE 61

Prediction: Denying the Existence

  • Explicitly denying the existence presupposition results in infelicity.

Example (14) Ali Ali emruz today xeyli very k¯ ar work d¯ asht have.PST vali but k¯ ar-i- ro work-IC-OM anj¯ am finish na-d¯ ad

NEG-give.3SG

“Ali had a lot of work to do but he didn’t do any of them.”

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SLIDE 62

Prediction: Proper Names

Example (15)

  • a. Ali

Ali Saburi Saburi mi-shn¯ as-i?

MI-know-2SG

“Do you know anyone named Ali Saburi?”

  • b. Ali

Ali Saburi- ro Saburi-OM mi-shn¯ as-i?

MI-know-2SG

“Do you know Ali Saburi?”

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SLIDE 63

To-Do’s!

  • Define some semantic primitives: existence, uniqueness, and

common ground.

  • Define specific, definite, and existentially presupposed using the

primitives.

  • Map the hypothesis space.
  • Show the problems with the specificity hypothesis.
  • Show the problems with the definiteness hypothesis.
  • Provide more data for the presuppositional hypothesis.
  • Provide a compositional account of definites and simple indefinites.

32

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SLIDE 64

Lexical Entry for R¯ a

r¯ a ↝ λP[λx[∂[∣P∣ ≥ 1] ∧ P(x)]]

33

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SLIDE 65

Deriving a Definite

eat(ιx[pear(x)])(sp)

t

λy[eat(ιx[pear(x)])(y)]

et

λxλy[eat(x)(y)]

⟨e,et⟩

xordam ιx[pear(x)]

e

λx[∂[∣pear∣ ≥ 1] ∧ pear(x)]

et

λP[λx[∂[∣P∣ ≥ 1] ∧ P(x)]]

⟨et,et⟩

ro λx[pear(x)]

et

gol¯ abi

iota

sp

e

man

34

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SLIDE 66

Deriving a R¯ a-marked Indefinite

λQ[∃x[∂[∣pear∣ ≥ 1] ∧ pear(x) ∧ Q(x)]]

⟨et,t⟩

λx[∂[∣pear∣ ≥ 1] ∧ pear(x)]

et

λP[λx[∂[∣P∣ ≥ 1] ∧ P(x)]]

⟨et,et⟩

ro

pear

et

gol¯ abi λPλQ[∃x[P(x) ∧ Q(x)]]

⟨et,⟨et,t⟩⟩

ye

35

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SLIDE 67

Deriving a R¯ a-marked Indefinite

λxλy[eat(x)(y)]

⟨e,et⟩

xordam λQ[∃x[∂[∣pear∣ ≥ 1] ∧ pear(x) ∧ Q(x)]]

⟨et,t⟩

λx[∂[∣pear∣ ≥ 1] ∧ pear(x)]

et

λP[λx[∂[∣P∣ ≥ 1] ∧ P(x)]]

⟨et,et⟩

ro

pear

et

gol¯ abi λPλQ[∃x[P(x) ∧ Q(x)]]

⟨et,⟨et,t⟩⟩

ye 36

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SLIDE 68

Deriving a R¯ a-marked Indefinite

∃x[∂[∣pear∣ ≥ 1] ∧ pear(x) ∧ eat(x)(sp)(x)] t λt[eat(t)(sp)] et eat(t)(sp) t λy[eat(t)(y)] et λxλy[eat(x)(y)] ⟨e,et⟩

xordam

t e sp e

man

λt λQ[∃x[∂[∣pear∣ ≥ 1] ∧ pear(x) ∧ Q(x)]] ⟨et,t⟩ λx[∂[∣pear∣ ≥ 1] ∧ pear(x)] et λP[λx[∂[∣P∣ ≥ 1] ∧ P(x)]] ⟨et,et⟩

ro

pear et

gol¯ abi

λPλQ[∃x[P(x) ∧ Q(x)]] ⟨et,⟨et,t⟩⟩

ye 37

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SLIDE 69

Conclusion

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SLIDE 70

Conclusion

  • The semantic contribution of r¯

a is best described as an existential presupposition.

  • To avoid confusion, it might be better to not use the term

“specificity” for r¯ a.

a’s existence presupposition provides half of definiteness.

  • The other half is provided by the absence of indefinite marking.

a’s existence presupposition is compatible with indefinites.

38

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SLIDE 71

Thank You!

  • Special thanks to:
  • Cleo Condoravdi for continued help and support with this project.
  • James Collins, Paul Kiparsky, Eve Clark, and Chris Potts.

39

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SLIDE 72

NP or DP?

Example (16)

  • a. ye

ID

mard-o man-OM y¯ a

  • r

zan-o woman-OM bar¯ a for in this k¯ ar job moarefi introduce kon-id do-2.PL “Introduce a man or a woman for this job.”

40

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SLIDE 73

References

References

Dabir-Moghaddam, M. (1992). On the (in) dependence of syntax and pragmatics: Evidence from the postposition-ra in persian. In Cooperating with Written Texts: The Pragmatics and Comprehension

  • f Written Texts, pages 549–574. Mouton de Gruyter.

Dalrymple, M. and Nikolaeva, I. (2011). Objects and information structure, volume 131. Cambridge University Press. Enc, M. (1991). The semantics of specificity. Linguistic Inquiry, 22(1):pp. 1–25. Farkas, D. F. (1994). Specificity and scope. In L. Nash and G. Tsoulas (eds), Langues et Grammaire 1. Citeseer. Fodor, J. D. and Sag, I. A. (1982). Referential and quantificational

  • indefinites. Linguistics and philosophy, 5(3):355–398.

Ghomeshi, J. (1996). PROJECTION AND INFLECTION: A STUDY OF PERSIAN PHRASE STRUCTURE. PhD thesis, University of Toronto. Karimi, S. (1990). Obliqueness, specificity, and discourse functions: Rˆ a in

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