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    Item type:Publication,
    Connexive logic: new old challenges
    (Oxford University Press (OUP), 2025-02-20) ;
    Luis Estrada-González
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    Item type:Publication,
    Connexive arithmetic formulated relevantly
    (Oxford University Press, 2025) ;
    Luis Estrada-González
    Following the strategy in [15] to develop inconsistent models for relevant arithmetics, we formulate a connexive variant of arithmetic by replacing the conditional of RM3 with the Belikov–Loginov conditional. We obtain thus the connexive logic cRM3 which serves as a base logic for arithmetics cRM3, cRM3⁠, cRM⁠, cRMn⁠, and cRM⁠. We compare these with their counterparts RM3⁠, RM and that extend relevant arithmetic. ©The authors ©Oxford University Press.
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    Item type:Publication,
    Gates and circuits via Dunn semantics
    (Oxford University Press (OUP), 2025)
    Computer hardware is heavily reliant on classical logic, but could we use some non-classical logic instead? In this paper I suggest an alternative model of implementation of logic gates in electronics. In particular, I propose a model that takes descriptions of logical connectives through means of Dunn semantics and implements them as logic gates by using a double current system: one for truth and one for falsity, instead of the classical use of a single current for both values. The outcome of this proposal should pave the way to new models of non-classical and even contra-classical computation based on paraconsistent, paracomplete and paranormal logics. © The author © Oxford University Press.
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    Item type:Publication,
    Extending computational trinitarianism
    (Oxford University Press (OUP), 2026-06-08)
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    Item type:Publication,
    Inconsistent sets and how to compute them
    (Springer Science and Business Media LLC, 2026) ;
    Weber, Zach
    The idea of a paraconsistent computability theory has been proposed as a way to work effectively with inconsistent sets of numbers. The viability of such a theory, though—the very coherence of the idea of an ‘inconsistent recursive relation’—has been called into doubt, most recently in (Choi, Synthese 200(5):418, 2022). In this paper we remove some doubt, by setting out a simple model of (naïve) set theory in LP, showing how to compute inconsistent sets in terms of extensions and antiextensions, and establishing further representability results. This suggests a way that a longstanding and apparently impossible-to-answer question—how can inconsistency be computed?—can be answered. ©The author ©Springer.