Completeness for flat modal fixpoint logics

Annals of Pure and Applied Logic 162 (1):55-82 (2010)
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Abstract

This paper exhibits a general and uniform method to prove axiomatic completeness for certain modal fixpoint logics. Given a set Γ of modal formulas of the form γ, where x occurs only positively in γ, we obtain the flat modal fixpoint language by adding to the language of polymodal logic a connective γ for each γΓ. The term γ is meant to be interpreted as the least fixed point of the functional interpretation of the term γ. We consider the following problem: given Γ, construct an axiom system which is sound and complete with respect to the concrete interpretation of the language on Kripke structures. We prove two results that solve this problem.First, let be the logic obtained from the basic polymodal by adding a Kozen–Park style fixpoint axiom and a least fixpoint rule, for each fixpoint connective γ. Provided that each indexing formula γ satisfies a certain syntactic criterion, we prove this axiom system to be complete.Second, addressing the general case, we prove the soundness and completeness of an extension of . This extension is obtained via an effective procedure that, given an indexing formula γ as input, returns a finite set of axioms and derivation rules for γ, of size bounded by the length of γ. Thus the axiom system is finite whenever Γ is finite

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Yde Venema
University of Amsterdam

Citations of this work

Completeness for μ-calculi: A coalgebraic approach.Sebastian Enqvist, Fatemeh Seifan & Yde Venema - 2019 - Annals of Pure and Applied Logic 170 (5):578-641.
Proof systems for the coalgebraic cover modality.Marta Bílková, Alessandra Palmigiano & Yde Venema - 1998 - In Marcus Kracht, Maarten de Rijke, Heinrich Wansing & Michael Zakharyaschev, Advances in Modal Logic. CSLI Publications. pp. 1-21.
Completeness of the finitary Moss logic.Clemens Kupke, Alexander Kurz & Yde Venema - 1998 - In Marcus Kracht, Maarten de Rijke, Heinrich Wansing & Michael Zakharyaschev, Advances in Modal Logic. CSLI Publications. pp. 193-217.

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References found in this work

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Axioms for tense logic. I. "Since" and "until".John P. Burgess - 1982 - Notre Dame Journal of Formal Logic 23 (4):367-374.
Axioms for tense logic. II. Time periods.John P. Burgess - 1982 - Notre Dame Journal of Formal Logic 23 (4):375-383.

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