
Time-to-Contact: Volume 135
Elsevier (Publisher)
Published on 6. May 2004
Book
Hardback
522 pages
978-0-444-51045-7 (ISBN)
Article exhausted; check different version
Description
Time-to-contact is the visual information that observers use in fundamental tasks such as landing an airplane or hitting a ball. Time-to-contact has been a hot topic in perception and action for many years and although many articles have been published on this topic, a comprehensive overview or assessment of the theory does not yet exist. This book fills an important gap and will have appeal to the perception and action community. The book is divided into four sections. Section one covers the foundation of time-to-contact, Section two covers different behavioral approaches to time-to-contact estimation, Section three focuses on time-to-contact as perception and strategy, and Section four covers time-to-contact and action regulation.
More details
Series
Language
English
Place of publication
Oxford
United Kingdom
Publishing group
Elsevier Science & Technology
Target group
Professional and scholarly
Psychologists, physiologists, biologists, and physicists interested in perception and action.
Product notice
Laminated cover
Dimensions
Height: 231 mm
Width: 157 mm
Thickness: 25 mm
Weight
925 gr
ISBN-13
978-0-444-51045-7 (9780444510457)
Copyright in bibliographic data and cover images is held by Nielsen Book Services Limited or by the publishers or by their respective licensors: all rights reserved.
Schweitzer Classification
Other editions
Additional editions

Heiko Hecht | Heiko Hecht | Geert Savelsbergh
Time-To-Contact
E-Book
05/2004
Elsevier
€118.00
Available for download
Persons
Editor
University of Mainz, Germany
Vrije Universiteit, Amsterdam, the Netherlands
Content
Introduction: Theories of Time-to-Contact Judgment.
The Biological Bases of Time-to-Collision Computation.
Building Blocks for Time-to-Contact Estimation by the Brain.
Predicting Motion: A Psychophysical Study.
Collisions: Getting Them Under Control.
Optical Information for Collision Detection During Deceleration.
Interceptive Action: What's Time-to-Contact got to do with it?
The Information-Based Control of Interceptive Timing: A Developmental Perspective.
A Step by Step Approach to Research on Time-to-Contact and Time-to-Passage.
Multiple Sources of Information Influence Time-to-Contact Judgments: Do Heuristics Accommodate Limits in Sensory and Cognitive Processes?
How Now, Broad Tau?
Interception of Projectiles, from When and Where to Where Once.
Acoustic Information for Timing.
Why Tau is Probably not Used to Guide Reaches.
The Use of Time-to-Contact Information for the Initiation of Hand Closure in Natural Prehension.
Another Timing Variable Composed of State Variables:
Phase Perception and Phase Driven Oscillators.
The Fallacy of Time-to-Contact Perception in the Regulation of Catching and Hitting.
Locomotion and TTC: How Time-to-Contact is Involved in the Regulation of Goal-Directed Locomotion.
The Biological Bases of Time-to-Collision Computation.
Building Blocks for Time-to-Contact Estimation by the Brain.
Predicting Motion: A Psychophysical Study.
Collisions: Getting Them Under Control.
Optical Information for Collision Detection During Deceleration.
Interceptive Action: What's Time-to-Contact got to do with it?
The Information-Based Control of Interceptive Timing: A Developmental Perspective.
A Step by Step Approach to Research on Time-to-Contact and Time-to-Passage.
Multiple Sources of Information Influence Time-to-Contact Judgments: Do Heuristics Accommodate Limits in Sensory and Cognitive Processes?
How Now, Broad Tau?
Interception of Projectiles, from When and Where to Where Once.
Acoustic Information for Timing.
Why Tau is Probably not Used to Guide Reaches.
The Use of Time-to-Contact Information for the Initiation of Hand Closure in Natural Prehension.
Another Timing Variable Composed of State Variables:
Phase Perception and Phase Driven Oscillators.
The Fallacy of Time-to-Contact Perception in the Regulation of Catching and Hitting.
Locomotion and TTC: How Time-to-Contact is Involved in the Regulation of Goal-Directed Locomotion.