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Classes in de.uni_tuebingen.sfb.lichtenstein.formulas used by de.uni_tuebingen.sfb.lichtenstein.formulas | |
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AtomicFormula
A class representing an atomic formula. |
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BinaryJunctor
A superclass for implication and equivalence, implementing common methods for binary junctors. |
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ComposedFormula
A class representing a composed formula, i.e. a formula which consists of other formulas, connected by an operator. |
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Conjunction
A class representing the conjunction of formulas. |
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Disjunction
A class representing the disjunction of formulas. |
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Dominance
A class representing the atomic formula which says one node dominates another. |
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Equivalence
A class representing the equivalence in logical formulas. |
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FirstOrderEquality
A class representing the atomic formula that says two first order variables are equal. |
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FirstOrderExistentialQuantification
A class representing the existential quantification of a formula over a first order variable. |
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FirstOrderQuantor
A class for representing quantors on first order variables, implementing common methods for existential and universal quantors. |
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FirstOrderUniversalQuantification
A class representing universal quantification of a formula over a first order variable. |
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FirstOrderVariable
A class representing first order variables in the monadic second order logic. |
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Formula
A class for specifying a formula in monadic second order logic. |
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FormulaImpl
A class providing implementations of the formula interface where possible. |
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FormulaVisitor
A general interface representing a visitor that visits formulas. |
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ImmediateDominance
A class representing the atomic formula which says one node immediately dominates another. |
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Implication
A class representing the implication of formulas. |
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Inclusion
A class representing inclusion of a first order variable in a set denotator. |
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NaryJunctor
A superclass for conjunction and disjunction, implementing common methods for binary junctors. |
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Precedence
A class representing the atomic formula which says one node precedes another. |
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Predicate
A class representing a predicate. |
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ProperDominance
A class representing the atomic formula which says one node properly dominates another. |
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Quantification
A class representing a quantification. |
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SecondOrderEquality
A class representing the atomic formula that says two variables are equal. |
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SecondOrderExistentialQuantification
A class representing the existential quantification of a formula over a second order variable. |
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SecondOrderQuantor
A class for representing quantors on second order variables, implementing common methods for existential and universal quantors. |
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SecondOrderUniversalQuantification
A class representing universal quantification of a formula over a second order variable. |
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SecondOrderVariable
A class representing second order variables in the monadic second order logic. |
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SetDenotator
An abstract superclass for second order variables and predicates, both denotating sets of nodes. |
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Subset
A class for representing the atomic formula which says a variable is a subset of another variable |
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UnaryJunctor
A class representing a unary junctor, having one argument. |
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Variable
A class representing variables and predicates in the monadic second order logic. |
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Visitable
An interface indicating a formula visitor can visit this class. |
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