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Deontic logic is devoted to the study of logical properties of normative predicates such as permission, obligation and prohibition. Since it is usual to apply these predicates to actions, many deontic logicians have proposed formalisms where actions and action combinators are present. Some standard action combinators are action conjunction, choice between actions and not doing a given action. These combinators resemble boolean operators, and therefore the theory of boolean algebra offers a well-known mathematical framework to study the properties of the classic deontic operators when applied to actions. In his seminal work, Segerberg uses constructions coming from boolean algebras to formalize the usual deontic notions. Segerberg's work provided the initial step to understand logical properties of deontic operators when they are applied to actions. In the last years, other authors have proposed related logics. In this chapter we introduce Segerberg's work, study related formalisms and investigate further challenges in this area. IntroductionThe so-called boolean operators (or, and, not) are commonly used in ordinary language as basic connectors in phrases to put together propositions, subjects and verbs. George Boole in his famous text An Investigation of the Laws of Thought [5] was one of the first mathematicians (if not the first) to study the mathematical properties of these connectors, his work is considered a cornerstone of modern logic, and can be thought of as capturing some universal laws of logic. One of the main contributions [15,16]) have been used to study the mathematical properties of logics by means of algebras. A boolean algebra is made up of a non-empty set of elements, binary operators +, ×, the unary operator − and two distinguished constants 0 and 1. Several (complete) axiomatizations of boolean algebras have been proposed in the literature; the following axiomatization comes from [12].• −0 = 1 and 0 = −1 (Zero and One laws).• x × 0 = 0 and x + 1 = 1 (Absorption of zero and one laws).This set of axioms is not the smallest one possible, but it exposes the standard properties of boolean algebras. It is straightforward to see that these properties are true for set intersection, set union and set complement in any field of sets. One may think of logical propositions such as it is raining or the wall is white as elements of a boolean algebra; and therefore the boolean operators allow us to construct more complicate statements, such as: it is raining or it is sunny; the wall is not white; it is raining and the wall is white. As a consequence, propositional logic can be seen as a boolean algebra, the formal technique to connect both worlds is called Lindenbaum-Tarski algebra, which is a boolean algebra made up of equivalence classes of sentences and the corresponding operations [29]. Two useful concepts that we will use through this chapter are those of ideal and filter; an ideal I of a boolean algebra B is a non-empty set I ⊆ B satisfying the following conditions:1. If x ∈ I and y ∈ I, ...
Deontic logic is devoted to the study of logical properties of normative predicates such as permission, obligation and prohibition. Since it is usual to apply these predicates to actions, many deontic logicians have proposed formalisms where actions and action combinators are present. Some standard action combinators are action conjunction, choice between actions and not doing a given action. These combinators resemble boolean operators, and therefore the theory of boolean algebra offers a well-known mathematical framework to study the properties of the classic deontic operators when applied to actions. In his seminal work, Segerberg uses constructions coming from boolean algebras to formalize the usual deontic notions. Segerberg's work provided the initial step to understand logical properties of deontic operators when they are applied to actions. In the last years, other authors have proposed related logics. In this chapter we introduce Segerberg's work, study related formalisms and investigate further challenges in this area. IntroductionThe so-called boolean operators (or, and, not) are commonly used in ordinary language as basic connectors in phrases to put together propositions, subjects and verbs. George Boole in his famous text An Investigation of the Laws of Thought [5] was one of the first mathematicians (if not the first) to study the mathematical properties of these connectors, his work is considered a cornerstone of modern logic, and can be thought of as capturing some universal laws of logic. One of the main contributions [15,16]) have been used to study the mathematical properties of logics by means of algebras. A boolean algebra is made up of a non-empty set of elements, binary operators +, ×, the unary operator − and two distinguished constants 0 and 1. Several (complete) axiomatizations of boolean algebras have been proposed in the literature; the following axiomatization comes from [12].• −0 = 1 and 0 = −1 (Zero and One laws).• x × 0 = 0 and x + 1 = 1 (Absorption of zero and one laws).This set of axioms is not the smallest one possible, but it exposes the standard properties of boolean algebras. It is straightforward to see that these properties are true for set intersection, set union and set complement in any field of sets. One may think of logical propositions such as it is raining or the wall is white as elements of a boolean algebra; and therefore the boolean operators allow us to construct more complicate statements, such as: it is raining or it is sunny; the wall is not white; it is raining and the wall is white. As a consequence, propositional logic can be seen as a boolean algebra, the formal technique to connect both worlds is called Lindenbaum-Tarski algebra, which is a boolean algebra made up of equivalence classes of sentences and the corresponding operations [29]. Two useful concepts that we will use through this chapter are those of ideal and filter; an ideal I of a boolean algebra B is a non-empty set I ⊆ B satisfying the following conditions:1. If x ∈ I and y ∈ I, ...
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