- (
-)bound: 1.4.1 Lambda-Abstraction
- (semantic) tableaux: 5.2.1 Tableaux for Theorem Proving
-abstraction: 1.4.1 Lambda-Abstraction
-conversion: 1.4.8 [Sidetrack:] Alpha-Conversion
-equivalent: 1.4.8 [Sidetrack:] Alpha-Conversion
-equivalent: 3.2.10 Sidetrack: Predicates versus Functions
-reduction: 1.4.2 Reducing Complex Expressions
-structure: 3.2.6 Describing Lambda-Structures
- abstracted over: 1.4.1 Lambda-Abstraction
- atomic formula: 1.2.3 Building Formulas
- binding edge: 3.2.5 Formulas are trees!, 3.2.6 Describing Lambda-Structures
- bound variable: 1.2.4 Bound and Free Variables
- calculus: 5.1.9 Calculi
- Choice Rule: 4.2.1 The Choice Rule
- closed: 5.2.3 Summing up
- combinatorial explosion: 3.1.8 The Problem with the Traditional Approaches
- complete: 5.1.9 Calculi
- computation tree: 6.1.5 An Example - first Steps
- confluence: 1.4.3 Using Lambdas
- conjunctive expansion: 5.2.1 Tableaux for Theorem Proving
- constant symbol: 1.2.1 Vocabularies
- constraint graph: 3.2.6 Describing Lambda-Structures
- constraint solving: 3.2.4 The Masterplan
- conversational implicature: 5.2.5 An Application: Conversational Maxims
- conversational maxim: 5.2.5 An Application: Conversational Maxims
- cooperative principle: 5.2.5 An Application: Conversational Maxims
- Cooper Storage: 3.1.7 Other Traditional Solutions
- correct: 5.1.9 Calculi
- deduction theorem: 5.1.8 Valid Arguments
- describe: 3.2.8 Relating Constraint Graphs and Lambda-Structures
- disjunctive: 5.2.2 Tableaux for Theorem Proving (continued)
- Distribution Rule: 4.2.1 The Choice Rule
- domain: 5.1.1 Models
- dominance edge: 3.2.6 Describing Lambda-Structures
- Enumeration: 4.1.1 Satisfiability and Enumeration
- first-order language: 1.2.2 First-Order Languages
- free variable: 1.2.4 Bound and Free Variables
- functional application: 1.4.2 Reducing Complex Expressions
- inference: 5.1.8 Valid Arguments
- initial tableaux: 5.2.3 Summing up
- interpretation: 5.1.4 Interpretations and Variant Assignments
- interpretation function: 5.1.1 Models
- Keller Storage: 3.1.7 Other Traditional Solutions
- literals: 5.2.3 Summing up
- Manner: 5.2.5 An Application: Conversational Maxims
- matrix: 1.2.3 Building Formulas
- meaning representation: 1.1 Introduction
- model for a vocabulary: 5.1.1 Models
- name: 1.2.1 Vocabularies
- Nested Cooper Storage: 3.1.7 Other Traditional Solutions
- normal dominance constraints: 3.2.4 The Masterplan, 3.2.9 Sidetrack: Constraint Graphs - The True Story
- normalization: 4.2.2 Normalization
- open: 5.2.3 Summing up
- parent normalization: 4.2.2 Normalization
- predicate symbol: 1.2.1 Vocabularies
- proof: 5.1.9 Calculi
- proof theory: 5.1.9 Calculi
- provable: 5.1.9 Calculi, 5.1.9 Calculi, 5.1.9 Calculi
- Quality: 5.2.5 An Application: Conversational Maxims
- quantifier store: 3.1.7 Other Traditional Solutions
- quantifying in: 3.1.5 Montague's Approach to the Scope Problem
- Quantity: 5.2.5 An Application: Conversational Maxims
- redundancy elimination: 4.2.2 Normalization
- Relation: 5.2.5 An Application: Conversational Maxims
- relation symbol: 1.2.1 Vocabularies
- restriction: 1.4.3 Using Lambdas
- Satisfiability: 4.1.1 Satisfiability and Enumeration
- saturated: 5.2.3 Summing up
- scope: 1.4.3 Using Lambdas, 1.2.3 Building Formulas
- scope ambiguity: 3.1.1 What Are Scope Ambiguities?
- semantic construction: 1 Semantic Construction
- sentence: 1.2.4 Bound and Free Variables
- sign: 5.2.1 Tableaux for Theorem Proving
- signature: 5.1.1 Models
- signed: 5.2.1 Tableaux for Theorem Proving
- solution: 3.2.8 Relating Constraint Graphs and Lambda-Structures
- solved form: 4.1.4 Defining Solved Forms
- sound: 5.1.9 Calculi
- syncategorematically: 2.4.3 ``Special'' Words
- syntactic structure: 1.3.2 Being Systematic (II)
- tableaux inference rules: 5.2.3 Summing up
- tableaux proof: 5.2.3 Summing up
- tableaux refutation: 5.2.3 Summing up
- term: 1.2.3 Building Formulas
- theorem: 5.1.9 Calculi
- true in a model: 5.1.6 Truth in a Model
- valid: 5.1.9 Calculi, 5.1.9 Calculi
- valid argument: 5.1.8 Valid Arguments
- valid formula: 5.1.7 Validities
- valid sentence: 5.1.7 Validities
- variant: 5.1.4 Interpretations and Variant Assignments
- vocabulary: 5.1.1 Models
- well-formed formula: 1.2.3 Building Formulas
- x-variant: 5.1.4 Interpretations and Variant Assignments
Aljoscha Burchardt, Alexander Koller and Stephan Walter
Version 1.2.5 (20030212)