Computational models of referring : a study in cognitive science /

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Bibliographic Details
Author / Creator:Deemter, Kees van, author.
Imprint:Cambridge, Massachusetts : The MIT Press, [2016]
Description:x, 339 pages : illustrations ; 24 cm
Language:English
Subject:
Format: Print Book
URL for this record:http://pi.lib.uchicago.edu/1001/cat/bib/11003784
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ISBN:9780262034555
0262034557
Notes:Includes bibliographical references and index.
Table of Contents:
  • Preface
  • I. First Part: Setting the Stage
  • 1. Aims and Scope of This Book
  • 1.1. Aims and Main Thesis
  • 1.2. Reference in Practical Applications of Computing
  • 1.3. Computational Models of Reference Production
  • 1.4. Determining the Information Content of an RE
  • 1.5. Focus on Speakers or Hearers?
  • 1.6. Referring in One Shot
  • 1.7. A Perspective on Reference: Information Sharing
  • 1.8. Summary of the Chapter
  • 2. Theories of Reference
  • 2.1. What Makes a Referring Expression?
  • 2.2. Knowing What Something Is
  • 2.3. Denotation and Connotation
  • 2.4. The Russell-Strawson Debate
  • 2.5. Intensional Contexts
  • 2.6. Attributive Descriptions and Misdescriptions
  • 2.7. Proper Names
  • 2.8. The Gricean Maxims and Relevance Theory
  • 2.9. Summary of the Chapter
  • 3. The Psychology of Reference Production
  • 3.1. Common Ground
  • 3.2. Audience Design and the Egocentricty Debate
  • 3.3. Rationality and the Gricean Maxims
  • 3.4. Intrinsic Preference for Certain Attributes
  • 3.5. Comparing Preference with Discrimination
  • 3.6. Insights from Dialogue
  • 3.7. Ecological Validity of Experiments
  • 3.8. Summary of the Chapter
  • II. Second Part: Solving the Classic Reg Problem
  • 4. Getting Computers to Refer
  • 4.1. Computational Pre-history of REG
  • 4.2. The California School
  • 4.3. The Classic REG Task
  • 4.4. Assumptions Behind the Classic REG Task
  • 4.5. Exploring the Gricean Angle Computationally
  • 4.6. The Incremental Algorithm
  • 4.7. Logical (In)completeness
  • 4.8. Computational Tractability of REG Algorithms
  • 4.9. Salience
  • 4.10. Summary of the Chapter
  • 5. Testing REG Algorithms: The TUNA Experiment
  • 5.1. Why the TUNA Experiment?
  • 5.2. How to Test a REG Algorithm?
  • 5.3. The TUNA Corpus and Its Annotation
  • 5.4. Analysis of the Furniture Corpus
  • 5.5. Analysis of the People Corpus
  • 5.6. Modelling a Plurality of Speakers
  • 5.7. Lessons from the TUNA Experiment
  • 5.8. Lessons from the TUNA Evaluation Challenges
  • 5.9. A Note on Alternative Metrics
  • 5.10. Summary of the Chapter
  • 6. Probabilistic and Other Alternatives to the Classic REG Algorithms
  • 6.1. Variations in Language Production
  • 6.2. Bayesian Models of Reference
  • 6.3. Probabilistic Referential Overspecification: the PRO Algorithm
  • 6.4. Constraint Satisfaction for REG
  • 6.5. Krahmer et al.'s Cost-Based Approach
  • 6.6. Appek's Heirs: Reference as Part of a Wider Problem
  • 6.7. Summary of the Chapter
  • III. Third Part: Generating a Wider Class of Res
  • 7. First Extension: Using Proper Names
  • 7.1. Why Have Proper Names Been Neglected in REG?
  • 7.2. Incorporating Proper Names into REG
  • 7.3. Reifying Properties
  • 7.4. Challenges for REG Posed by Proper Names
  • 7.5. Summary of the Chapter
  • 8. Second Extension: Referring to Sets
  • 8.1. Purely Conjunctive References to Sets
  • 8.2. Negation and Disjunction
  • 8.3. Satellite Sets and Their Use in REG
  • 8.4. Generating Boolean Logical Forms Incrementally
  • 8.5. Optimization of Generated REs
  • 8.6. Issues Raided by the Algorithms Proposed
  • 8.7. Lexical Coherence in Conjoined RES
  • 8.8. Avoiding Surface Ambiguities
  • 8.9. Beyond Sets of Objects
  • 8.10. Summary of the Chapter
  • 9. Third Extension: Using Gradable Properties
  • 9.1. The Semantics of Vague Descriptions
  • 9.2. Pragmatic Constraints on What Can Be Said
  • 9.3. Empirical Grounding
  • 9.4. Computational Generation of Vague Descriptions
  • 9.5. Puzzles for Incremental Content Determination
  • 9.6. A Case Study: Real-World Objects and Their Sizes
  • 9.7. Can We Ever Be Clear? Salience as a Gradable Property
  • 9.8. Summary of the Chapter
  • 10. Fourth Extension: Exploiting Modern Knowledge Representation
  • 10.1. Knowledge Representation and REG
  • 10.2. Description Logic: a Primer
  • 10.3. Applying Description Logic to Familiar REG Problems
  • 10.4. Exploiting the Full Power of Di.
  • 10.5. Using SROTQ + to Generate Complex REs
  • 10.6. Rethinking REG: Using Shared Knowledge That Is Not Atomic
  • 10.7. Why Study the Generation of Logically Complex Res?
  • 10.8. Summary of the Chapter
  • 11. The Question of Referability
  • 11.1. Revisiting the Logical Completeness of REG
  • 11.2. Limitations of SROIQ + and the GROWL Algorithm
  • 11.3. Even More Expressive Algorithms?
  • 11.4. Summary of the Chapter
  • IV. Fourth Part: Generalizing Reference Generation
  • 12. First Challenge: Large Domains
  • 13. Second Challenge: Breakdown of Common Knowledge
  • 14. Third Challenge: Approximate Reference
  • 15. Fourth Challenge: Going Beyond Identification
  • Summary of Part IV: Complexities of Information Sharing
  • V. Epilogue
  • 16. Epilogue
  • 16.1. REG Algorithms as Cognitive Models
  • 16.2. The Gricean Maxims and the Principle of Intrinsic Preference
  • 16.3. Future Research: The Way Ahead
  • Frequently Occurring Terms and Abbreviations
  • Bibliography
  • Index