Looking at the ways humans perceive, interpret, remember, and interact with events occurring in space, this book focuses on two aspects of spatial cognition: How does spatial cognition develop? What is the relation between spatial cognition and the brain? This book offers a unique opportunity to share the combined efforts of scientists from varied disciplines, including cognitive and developmental psychology, neuropsychology, behavioral neurology, and neurobiology in the process of interacting and exchanging ideas. Based on a conference held at the Neuroscience Conference Center of the Salk Institute for Biological Studies, this book explores current scientific trends seeking a biological basis for understanding the relationships among brain, mind, and behavior.

Despite a growing interest for space in language, most research has focused on spatial markers specifying the static or dynamic relationships among entities (verbs, prepositions, postpositions, case markings ). Little attention has been paid to the very properties of spatial entities, their status in linguistic descriptions, and their implications for spatial cognition and its development in children. This topic is at the center of this book, that opens a new field by sketching some major theoretical and methodological directions for future research on spatial entities. Brought together linguistic descriptions of spatial systems, formal accounts of linguistic data, and experimental findings from psycholinguistic studies, all couched within a wide cross-linguistic perspective. Such an interdisciplinary approach provides a rich overview of the many questions that remain unanswered in relation to spatial entities, while also throwing a new light on previous research focusing on related topics concerning space and/or the relation between language and cognition.

First published in 1983. This is a volume in a series on Child Psychology. This book offers a set of theoretical ideas which make up a quite general theory of the mental representation of space which accounts both for much of spatial perception but also much of spatial thought. The system is general and economical and can be readily applied to novel problems as we illustrated in regard to Piaget’s water level problem and Koler’s letter recognition problem.

Egocentric spatial language uses coordinates in relation to our body to talk about small-scale space ('put the knife on the right of the plate and the fork on the left'), while geocentric spatial language uses geographic coordinates ('put the knife to the east, and the fork to the west'). How do children learn to use geocentric language? And why do geocentric spatial references sound strange in English when they are standard practice in other languages? This book studies child development in Bali, India, Nepal, and Switzerland and explores how children learn to use a geocentric frame both when speaking and performing non-verbal cognitive tasks (such as remembering locations and directions). The authors examine how these skills develop with age, look at the socio-cultural contexts in which the learning takes place, and explore the ecological, cultural, social, and linguistic conditions that favor the use of a geocentric frame of reference.

This book presents recent research on the role of space as a mechanism in language use and learning. Experimental psychologists, computer scientists, robotocists, linguists, and researchers in child language consider the nature and applications of this research and its implications for understanding the processes involved in language acquisition.

Research on spatial cognition is a rapidly evolving interdisciplinary enterprise for the study of spatial representations and cognitive spatial processes, be they real or abstract, human or machine. Spatial cognition brings together a variety of - search methodologies: empirical investigations on human and animal orientation and navigation; studies of communicating spatial knowledge using language and graphical or other pictorial means; the development of formal models for r- resenting and processing spatial knowledge; and computer implementations to solve spatial problems, to simulate human or animal orientation and navigation behavior, or to reproduce spatial communication patterns. These approaches can interact in interesting and useful ways: Results from empirical studies call for formal explanations both of the underlying memory structures and of the processes operating upon them; we can develop and - plement operational computer models obeying the relationships between objects and events described by the formal models; we can empirically test the computer models under a variety of conditions, and we can compare the results to the - sults from the human or animal experiments. A disagreement between these results can provide useful indications towards the re nement of the models.