2021
DOI: 10.1007/978-3-030-71258-7_3
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On Axioms and Rexpansions

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Cited by 11 publications
(17 citation statements)
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“…) never uses the 1 2 value of matrix K. As K behaves classically for the 0, 1 values, we conclude that all bivaluations in BVal(K ω * L ω ) are classical. On the other hand, we know from Lemmas 11,20 and…”
Section: Representing Pairs Of Pairs As Four-tuples We Get the Set Of...mentioning
confidence: 99%
See 2 more Smart Citations
“…) never uses the 1 2 value of matrix K. As K behaves classically for the 0, 1 values, we conclude that all bivaluations in BVal(K ω * L ω ) are classical. On the other hand, we know from Lemmas 11,20 and…”
Section: Representing Pairs Of Pairs As Four-tuples We Get the Set Of...mentioning
confidence: 99%
“…Often, one works with a single-conclusion logic which can then be streghtened by the addition of new axioms [6,26,20] (and possibly also new syntax). Concretely, let Σ 1 , ⊢ 1 be a single-conclusion logic, Σ 2 be a signature, Ax ⊆ L Σ2 (P ) be a set of axiom schemata, and define Ax inst = {A σ : A ∈ Ax and σ : P → L Σ1∪Σ2 (P )}.…”
Section: Adding Axiomsmentioning
confidence: 99%
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“…Given a Σ-matrix M = A, D , a set of axioms Ax ⊆ F m Σ and a set of rules R ⊆ ℘(F m Σ ) × F m Σ , we write Val Ax M for the set of valuations on M such that v(ϕ σ ) ⊆ D for every ϕ ∈ Ax and every substitution σ, and Val R M for the set of valuations on M such that v(Γ σ ) ⊆ D implies ϕ σ ∈ D for every Γ ϕ ∈ R and substitution σ. The following result (whose simple proof we omit) is a corollary of [4, Lemma 2.7] and will be very useful to show relative axiomatization results (this technique is used in [5] to obtain general modular semantics for axiomatic extensions of a given logic). In item (ii), M ω is a shorthand for i<ω M. Proposition 5.15.…”
Section: 3mentioning
confidence: 99%
“…The added expressiveness allows for finite characterizations of logics that do not admit finite semantics based on logical matrices [23,24] and provide valuable insight about proof theoretical properties of said logics [2]. It also allows for general recipes for various practical problems in logic, including procedures to constructively updating semantics when imposing new axioms [9,12], including language extensions; or effectively combining the semantics of two logics capturing the effect of joining their axiomatizations [8,21]. Recently, PNmatrices also provided new interpretations of quantum states as valuations [15].…”
Section: Introductionmentioning
confidence: 99%