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Aspect in Ancient Greek - Nijmegen Centre for Semantics

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4.9 The conative and likelihood <strong>in</strong>terpretations 109Consider (136), which gives the semantics <strong>for</strong> (135):(136) PAST(IMP(λe d buy(e)))= λQ[Q(t TT ) ⊕tTT ≺ n ](λPλt[P(e) ⊕ eτ(e) ·⊃ t TT](λe d buy(e)))≡ed buy(e)τ(e) ·⊃ t TTt TT ≺ nIn contrast to the natural language sentence (135), the logical <strong>for</strong>m (136) doesentail that there is a (complete) eventuality e of which the predicate holds,which is clearly not what we want. We hit here upon the notorious problemof the imperfective paradox, which I have already briefly discussed <strong>in</strong> section3.2.2 and which was shown to be a challenge <strong>for</strong> the English progressive aswell.I don’t have a solution to the imperfective paradox. I believe that such asolution goes beyond the scope of this work and deserves a study of its own, aswitnessed by the many attempts found <strong>in</strong> the literature. However, <strong>in</strong> order notto neglect the imperfective paradox completely, I will show how one specificproposal to solve the imperfective paradox (<strong>for</strong> the English progressive) can be<strong>in</strong>tegrated <strong>in</strong>to my account of imperfective aspect. This is the account of Dowty(1979:145–150). The solution <strong>in</strong>volves an ‘<strong>in</strong>tensionalisation’ of the semanticsof imperfective aspect. To put it simply, the imperfective now <strong>in</strong>dicates thatthere is an eventuality to which the predicate applies <strong>in</strong> the normal, not theactual, course of eventualities. The <strong>for</strong>malisation of this new imperfectiveoperator IMP ′ is given <strong>in</strong> (137):(137) IMP ′ = λPλt w ′Inert t (w 0 ,w ′ ) → [eτ(e) ·⊃ t ⊕P(w′ )(e)]A crucial part of IMP ′ is the notion of <strong>in</strong>ertia worlds. Inert t (w 0 ,w ′ ) readsas: w ′ is an <strong>in</strong>ertia world <strong>for</strong> the actual world w 0 at time t, which meansthat w ′ is exactly like world w 0 up to and <strong>in</strong>clud<strong>in</strong>g t and after t the course

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