2015
DOI: 10.4204/eptcs.193.10
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The expressive power of modal logic with inclusion atoms

Abstract: Modal inclusion logic is the extension of basic modal logic with inclusion atoms, and its semantics is defined on Kripke models with teams. A team of a Kripke model is just a subset of its domain. In this paper we give a complete characterisation for the expressive power of modal inclusion logic: a class of Kripke models with teams is definable in modal inclusion logic if and only if it is closed under k-bisimulation for some integer k, it is closed under unions, and it has the empty team property. We also pro… Show more

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Cited by 15 publications
(20 citation statements)
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“…Then one can proceed with the parameterised complexity of validity and entailment in these logics. In [12], Hella and Stumpf posed an interesting question to determine the complexity of satisfiability for modal inclusion logic with only unary inclusion atoms. In Theorem 18 we proved that the fixed-arity fragment of PIN C has the same complexity for SAT as PL (NP-complete).…”
Section: Discussionmentioning
confidence: 99%
“…Then one can proceed with the parameterised complexity of validity and entailment in these logics. In [12], Hella and Stumpf posed an interesting question to determine the complexity of satisfiability for modal inclusion logic with only unary inclusion atoms. In Theorem 18 we proved that the fixed-arity fragment of PIN C has the same complexity for SAT as PL (NP-complete).…”
Section: Discussionmentioning
confidence: 99%
“…Theorem 43 ( [20]). A class C of team-pointed Kripke models is definable by a single formula of EMIN C iff C is union closed, closed under team k-bisimulation, for some k ∈ N, and admits the empty team property.…”
Section: Extensions Of Modal Logic With Atomic Dependency Notionsmentioning
confidence: 99%
“…Hella et al [19] established that exactly the properties of teams that have the so-called empty team property, are downward closed and closed under the so-called team k-bisimulation, for some finite k, are definable in EMDL. Kontinen et al [25] have shown that exactly the properties of teams that are closed under the team k-bisimulation are definable in the so-called modal team logic, whereas Hella and Stumpf established [20] that the so-called extended modal inclusion logic is characterised by the empty team property, union closure, and closure under team k-bisimulation. See the survey [7] for a detailed exposition on the expressive power and computational complexity of related logics.…”
Section: Introductionmentioning
confidence: 99%
“…By analogously adding the independence atom α ⊥ β γ, we obtain modal independence logic MIL [19], and with the inclusion atom α ⊆ β, we have modal inclusion logic MInc [14]. Adding both the inclusion and exclusion atom results in modal inclusion/exclusion logic MIncEx, the modal analogon to Galliani's I/E-logic [5].…”
Section: Dependence Independence Inclusion and Exclusion Logicmentioning
confidence: 99%