© 2002 – Psychology Press
In this book, a number of experts from various disciplines take a look at three different strands in learning to model. They examine the activity of modeling from disparate theoretical standpoints, taking into account the individual situation of the individuals involved. The chapters seek to bridge the modeling of communication and the modeling of particular scientific domains. In so doing, they seek to throw light on the educational communication that goes on in conceptual learning.
Taken together, the chapters brought together in this volume illustrate the diversity and vivacity of research on a relatively neglected, yet crucially important aspect of education across disciplines: learning to model. A common thread across the research presented is the view that communication and interaction, as fundamental to most educational practices and as a repository of conceptual understanding and a learning mechanism in itself, is intimately linked to elaborating meaningful, coherent, and valid representations of the world.
The editors hope this volume will contribute to both the fundamental research in its field and ultimately provide results that can be of practical value in designing new situations for teaching and learning modeling, particularly those involving computers.
"It is thus refreshing to see an edited collection that deals explicitly with cognitive science and education. This collection, which stems from a conference held in Corsica in 1999, consists of a mix of chapters that apply cognitive science approaches to the understanding of learning in a variety of scientific domains and chapters that present and assess different computer-assisted learning environments."
—American Journal of Psychology
Contents: Preface. Part I: Coordinating Representations. K. Stenning, J.G. Greeno, R. Hall, M. Sommerfeld, M. Wiebe, Coordinating Mathematical With Biological Multiplication: Conceptual Learning as the Development of Heterogeneous Reasoning Systems. J. Vince, A. Tiberghien, Modeling in Teaching and Learning Elementary Physics. J.R. Frederiksen, B.Y. White, Conceptualizing and Constructing Linked Models: Creating Coherence in Complex Knowledge Systems. Part II: Provoking More Effective Modeling. R. Luckin, B. du Boulay, Construction and Abstraction: Contrasting Methods of Supporting Model Building in Learning Science. Z. Fund, Cognitive Support in Computerized Science Problem Solving: Eliciting External Representation and Improving Search Strategies. A. Bouwer, V.B. Machado, B. Bredeweg, Interactive Model-Building Environments. S. Bull, V. Dimitrova, P. Brna, Enhancing Reflective Modeling Through Communicative Interaction in Learning Environments. Part III: Collaboration and Language. P. Brna, M. Burton, Modeling the Modelers: Communicating About Content Through Shared External Representations. K. Lund, Teachers' Explanations of Students' Collaborative Modeling Activities. D. Alamargot, J. Andriessen, The "Power" of Text Production Activity in Collaborative Modeling: Nine Recommendations to Make a Computer-Supported Situation Work. M. Baker, Argumentative Interactions, Discursive Operations, and Learning to Model in Science.