Orthogonality relations and operators on bounded quasi-implication algebras
Joseph McDonald

TL;DR
This paper explores the algebraic and relational properties of bounded quasi-implication algebras, introduces monadic variants, and establishes categorical equivalences with quantum monadic algebras, expanding the theoretical framework of quantum logic.
Contribution
It introduces monadic quasi-implication algebras and demonstrates their categorical equivalence with quantum monadic algebras, generalizing previous constructions in ortholattice theory.
Findings
Constructed orthogonality relations from bounded quasi-implication algebras.
Established isomorphism between categories of quantum monadic and monadic quasi-implication algebras.
Developed monadic orthoframes from monadic quasi-implication algebras.
Abstract
In this note, we study various relational and algebraic aspects of the bounded quasi-implication algebras introduced by Hardegree. By generalizing the constructions given by MacLaren and Goldblatt within the setting of ortholattices, we construct various orthogonality relations from bounded quasi-implication algebras. We then introduce certain bounded quasi-implication algebras with an additional operator, which we call monadic quasi-implication algebras, and study them within the setting of quantum monadic algebras. A quantum monadic algebra is an orthomodular lattice equipped with a closure operator, known as a quantifier, whose closed elements form an orthomodular sub-lattice. It is shown that every quantum monadic algebra can be converted into a monadic quasi-implication algebra with the underlying magma structure being determined by the operation of Sasaki implication on the…
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Taxonomy
TopicsAdvanced Algebra and Logic · Logic, Reasoning, and Knowledge · Advanced Topics in Algebra
