@cite{francescotti-1995} #
Even: The Conventional Implicature Approach Reconsidered. Linguistics and Philosophy 18: 153–173.
Francescotti defends and revises the Implicature Account (IA) of "even" against Lycan's quantifier approach. The core contribution is a revised felicity condition: S* must be more surprising than MOST (not ONE, not ALL) of its true neighbors.
Key Claims #
(a) "Even" does not make a truth-functional difference; it contributes via conventional implicature (Equivalence Thesis). (b) "Even" is epistemic: it implies surprise, unexpectedness, or unlikelihood. (c) "Even" is scalar: unexpectedness comes in degrees. (d) Felicity requires S* to be more surprising than MOST true neighbors — not just one (@cite{bennett-1982}), not all (@cite{karttunen-peters-1979}).
Formalization #
We derive the Equivalence Thesis and threshold choice from the English fragment entry, then encode the two key counterexamples as finite scenarios and prove that only Francescotti's "most" threshold gives the correct predictions for both.
Equivalence Thesis (§V(a)): "Even A is F" is true just in case "A is F" is true. "Even" does not make a truth-functional difference. Derived from the fragment entry.
"Even" contributes via conventional implicature, not assertion. Derived from the fragment entry.
The fragment specifies Francescotti's "most" threshold.
A scenario for testing "even" felicity predictions. Each scenario specifies surprise levels for the prejacent and its contextually-determined neighbors, plus the observed felicity judgment.
- description : String
Description
- prejacent : ℕ
Surprise level of S* (higher = more surprising = less likely)
Surprise levels of the neighbor alternatives
- felicitous : Bool
Observed felicity (true = felicitous)
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Predict felicity for a scenario under a given threshold.
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- Phenomena.Focus.Studies.Francescotti1995.predict s t = Semantics.FocusParticles.evenPresupWith s.prejacent s.neighbors (fun (a b : ℕ) => decide (a > b)) t
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Predict felicity using the threshold from the English fragment.
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Scenario 1: "Even Albert passed the exam" #
Albert is one of the best chemistry students. He and Marie (the very best) are both very likely to pass. Three weaker students have higher surprise for passing.
Bennett predicts felicitous (Albert exceeds Marie), but the sentence is actually infelicitous — Albert's passing is completely unsurprising.
Albert passing is unsurprising (level 2); Marie even less so (level 1). Three other students have high surprise (5, 7, 8).
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Bennett (∃) wrongly predicts felicitous: Albert(2) exceeds Marie(1).
K-P (∀) correctly predicts infelicitous here (but will fail on scenario 2).
Francescotti (most) correctly predicts infelicitous: Albert(2) exceeds only 1 of 4 neighbors (25% < 50%).
Scenario 2: "Even Albert failed the exam" #
Albert is one of the best students, so failing is very surprising. Marie is even better, so her failing would be even MORE surprising. Three weaker students have low surprise for failing.
K-P predicts infelicitous (Albert doesn't exceed Marie), but the sentence is actually felicitous — Albert failing IS very surprising.
Albert failing is very surprising (level 8); Marie even more so (level 9). Three weaker students have low surprise for failing (3, 2, 1).
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Bennett (∃) correctly predicts felicitous here.
K-P (∀) wrongly predicts infelicitous: Albert(8) doesn't exceed Marie(9).
Francescotti (most) correctly predicts felicitous: Albert(8) exceeds 3 of 4 neighbors (75% > 50%).
Francescotti's "most" threshold is the only one that matches observed felicity judgments on both scenarios.
The English fragment entry for "even" gives correct predictions
on both scenarios (since it specifies .most).
Gradient Felicity #
Francescotti argues that felicity comes in degrees, determined by: (a) how much S* surpasses neighbors in surprise (degree of excess), and (b) how many neighbors S* surpasses (proportion exceeded).
The Andre/height example (p. 164): if Andre is BY FAR the tallest person, "Even Andre cannot reach the top shelf" is VERY felicitous. If he's tallest by a small margin, it's less felicitous.
Proportion of alternatives exceeded, as a rational in [0, 1]. Captures Francescotti's gradient: higher = more felicitous.
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Average surprise margin over exceeded alternatives. Captures how MUCH S* surpasses its neighbors (dimension (a)).
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Combined felicity degree: proportion × mean excess. Higher values = more felicitous.
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Scenario 2 (Albert failing) has higher felicity degree than scenario 1 (Albert passing), matching the intuition that scenario 2 is felicitous and scenario 1 is not.
Andre far above average: very high felicity degree.
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Andre barely tallest: lower felicity degree.
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Andre by far exceeds more, matching Francescotti's gradient intuition.