Abstract
We extend classical work by Janusz Czelakowski on the closure properties of the class of matrix models of entailment relations—nowadays more commonly called multiple-conclusion logics—to the setting of non-deterministic matrices (Nmatrices), characterizing the Nmatrix models of an arbitrary logic through a generalization of the standard class operators to the non-deterministic setting. We highlight the main differences that appear in this more general setting, in particular: the possibility to obtain Nmatrix quotients using any compatible equivalence relation (not necessarily a congruence); the problem of determining when strict homomorphisms preserve the logic of a given Nmatrix; the fact that the operations of taking images and preimages cannot be swapped, which determines the exact sequence of operators that generates, from any complete semantics, the class of all Nmatrix models of a logic. Many results, on the other hand, generalize smoothly to the non-deterministic setting: we show for instance that a logic is finitely based if and only if both the class of its Nmatrix models and its complement are closed under ultraproducts. We conclude by mentioning possible developments in adapting the Abstract Algebraic Logic approach to logics induced by Nmatrices and the associated equational reasoning over non-deterministic algebras.
Second reader: Hanamantagouda P. Sankappanavar
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Notes
- 1.
Czelakowski’s results are reviewed in Section 3 of J. M. Font and R. Jansana’s chapter included in the present book.
- 2.
For the sake of readability, we write \({\textbf{A}}_1=\langle {A_1,\cdot _1}\rangle \) instead of \({\textbf{A}}_1=\langle {A_1,\cdot _{{\textbf{A}}_1}}\rangle \), etc.
- 3.
Recall that an ultrafilter on I is a set \({\mathcal U}\subseteq \wp (I)\) such that \(\varnothing \not \in {\mathcal U}\), if \(X\subseteq Y\subseteq I\) and \(X\in {\mathcal U}\) then \(Y\in {\mathcal U}\), if \(X,Y\in {\mathcal U}\) then \(X\cap Y\in {\mathcal U}\), and for every \(X\subseteq I\) either \(X\in {\mathcal U}\) or \(I\setminus X\in {\mathcal U}\).
References
Avron, A. (2005). Non-deterministic matrices and modular semantics of rules. In J.-Y. Béziau (Ed.), Logica universalis (pp. 149–167). Birkhäuser.
Avron, A., Ben-Naim, J., & Konikowska, B. (2007). Cut-free ordinary sequent calculi for logics having generalized finite-valued semantics. Logica Universalis, 1(1), 41–70.
Avron, A., Konikowska, B., & Zamansky, A. (2012). Modular construction of cut-free sequent calculi for paraconsistent logics. In Proceedings of the 27th annual IEEE symposium on logic in computer science (LICS 2012) (pp. 85–94).
Avron, A., & Lev, I. (2005). Non-deterministic multiple-valued structures. Journal of Logic and Computation, 15(3), 241–261.
Avron, A., & Zamansky, A. (2011). Non-deterministic semantics for logical systems: A survey. In D. Gabbay & F. Guenthner, (Eds.), Handbook of philosophical logic (Vol. 16, pp. 227–304). Springer.
Avron, A., & Zohar, Y. (2019). R expansions of non-deterministic matrices and their applications in non-classical logics. Review of Symbolic Logic, 12(1), 173–200.
Baaz, M., Lahav, O., & Zamansky, A. (2013). Finite-valued semantics for canonical labelled calculi. Journal of Automated Reasoning, 51(4), 401–430.
Beall, J., & Restall, G. (2000). Logical pluralism. Australasian Journal of Philosophy, 78(4), 475–493.
Blok, W., & Pigozzi, D. (1989). Algebraizable logics. Memoirs of the AMS (Vol. 396). American Mathematical Society.
Caleiro, C., & Marcelino, S. (2019). Analytic calculi for monadic PNmatrices. In International workshop on logic, language, information, and computation. LCNS (pp. 84–98). Springer.
Caleiro, C., & Marcelino, S. (2021). On axioms and rexpansions. In O. Arieli & A. Zamansky, (Eds.), Arnon avron on semantics and proof theory of non-classical logics. Outstanding contributions to logic (Vol. 21). Springer.
Caleiro, C., & Marcelino, S. (2022). Modular many-valued semantics for combined logics. The Journal of Symbolic Logic, 1–51.
Caleiro, C., Marcelino, S., & Rivieccio, U. (2018). Characterizing finite-valuedness. Fuzzy Sets and Systems, 345, 113–125.
Chagrov, A. V., & Zakharyaschev, M. (1997). Modal logic. Oxford logic guides (Vol. 35). Oxford University Press.
Chemla, E., & Egré, P. (2021). From many-valued consequence to many-valued connectives. Synthese, 198(22), 5315–5352.
Cirulis, J. (2003). Multi-algebras from the viewpoint of algebraic logic. Algebra and Discrete Mathematics, 1, 20–31.
Corsini, P., & & Leoreanu, V. (2003) Applications of hyperstructure theory. Advances in mathematics (Vol. 5). Springer.
Crawford, J., & Etherington, D. (1998). A non-deterministic semantics for tractable inference. In Proceedings of the fifteenth national/tenth conference on artificial intelligence/innovative applications of artificial intelligence, AAAI ’98/IAAI ’98 (pp. 286–291). USA: American Association for Artificial Intelligence.
Czelakowski, J. (1983). Some theorems on structural entailment relations. Studia Logica, 42(4), 417–429.
Czelakowski, J. (2001). Protoalgebraic logics. In Protoalgebraic logics (pp. 69–122). Springer.
Filipe, P., Marcelino, S., & Caleiro, C. (2022). Computational properties of finite PNmatrices. Journal of Logic and Computation, 32(8), 1694–1719.
Font, J. (2013). The simplest protoalgebraic logic. Mathematical Logic Quarterly, 59(6), 435–451.
Font, J. (2016). Abstract algebraic logic. An introductory textbook. Studies in logic. Mathematical logic and foundation (Vol. 60). College Publications.
Golzio, A. (2018). A brief historical survey on hyperstructures in algebra and logic. South American Journal of Logic, 4(1), 2446–6719.
Gomes, J., Greati, V., Marcelino, S., Marcos, J., & Rivieccio, U. (2022). On logics of perfect paradefinite algebras. In M. Ayala-Rincon & E. Bonelli, (Eds.), Proceedings 16th logical and semantic frameworks with applications. Electronic proceedings in theoretical computer science (Vol. 357, pp. 56–76). Open Publishing Association.
Grätzer, G. (1962). A representation theorem for multi algebras. Archiv der Mathematik, 13, 452–456.
Ivlev, J. (1988). A semantics for modal calculi. Bulletin of the Section of Logic, 17(3–4), 114–121.
Marcelino, S., & Caleiro, C. (2017). Disjoint fibring of non-deterministic matrices. In R. de Queiroz & J. Kennedy, (Eds.), Logic, language, information and computation (WoLLIC 2017). LNCS (Vol. 10388, pp. 242–255). Springer.
Marcelino, S., & Caleiro, C. (2021). Axiomatizing non-deterministic many-valued generalized consequence relations. Synthese, 198(22), 5373–5390.
Marcelino, S., Caleiro, C., & Rivieccio, U. (2018). Plug and play negations. In Carnielli & J. W., Malinowski, (Eds.), Contradictions, from consistency to inconsistency. Trends in logic (Vol. 47). Springer.
Marcelino, S., & Rivieccio, U. (2017). Locally tabular \(\ne \) locally finite. Logica Universalis, 11(3), 383–400.
Marcelino, S., & Rivieccio, U. (2022). Logics of involutive stone algebras. Soft Computing, 26(7), 3147–3160.
Marty, F. (1934). Sur une generalization de la notion de group. In Proceedings of the 8th congress des mathematiciens scandinave, (pp. 45–49).
Nolan, F. (1979). Multi algebras and related structures. Ph.D. thesis, University of Canterbury. Mathematics.
Quine, W. (1973). The roots of reference. Open Court.
Rinaldi, D., & Wessel, D. (2019). Cut elimination for entailment relations. Archive for Mathematical Logic, 58(5), 605–625.
Ripley, D. (2021). One step is enough. Journal of Philosophical Logic, 1–27.
Rumfitt, I. (2000). Yes and No. Mind, 109(436), 781–823.
Scott, D. (1974). Completeness and axiomatizability in many-valued logic. In L. Henkin, J. Addison, C. Chang, W. Craig, D. Scott, & R. Vaught, (Eds.), Proceedings of the tarski symposium. Proceedings of symposia in pure mathematics (Vol. XXV, pp. 411–435). American Mathematical Society.
Shoesmith, D., & Smiley, T. (1971). Deducibility and many-valuedness. The Journal of Symbolic Logic, 36(4), 610–622.
Shoesmith, D., & Smiley, T. (1978). Multiple-conclusion logic. Cambridge University Press.
Smiley, T. (1996). Rejection. Analysis, 56(1), 1–9.
Walicki, M., & Meldal, S. (1995). A complete calculus for the multialgebraic and functional semantics of nondeterminism. ACM Transactions on Programming Languages and Systems, 17(2), 366–393.
Wójcicki, R. (1988). Theory of logical calculi. Synthese library (Vol. 199). Kluwer.
Wroński, A. (1979). A three element matrix whose consequence operation is not finitely based. Bulletin of the Section of Logic, 2(8), 68–70.
Zygmunt, J. (1979). Entailment relations and matrices I. Bulletin of the Section of Logic, 8(2), 112–115.
Zygmunt, J. (1984). An essay in matrix semantics for consequence relations. Acta universitatis wratislaviensis (Vol. 741). U. Wrocław.
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Research funded by FCT/MCTES through national funds and when applicable co-funded by EU under the project UIDB/50008/2020 of Instituto de Telecomunicações.
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Caleiro, C., Marcelino, S., Rivieccio, U. (2024). Some More Theorems on Structural Entailment Relations and Non-deterministic Semantics. In: Malinowski, J., Palczewski, R. (eds) Janusz Czelakowski on Logical Consequence. Outstanding Contributions to Logic, vol 27. Springer, Cham. https://doi.org/10.1007/978-3-031-44490-6_12
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