This chapter discusses learning through the manipulation of three-dimensional objects. The opportunity to touch and interact with objects is helpful for young children as they attempt to understand abstract concepts and processes. How might parents guide children in coming to understand the complex and abstract symbolic nature of representational objects?
“Scaling up” involves adapting an innovation successful in some local setting to effective usage in a wide range of contexts. In contrast to experiences in other sectors of society, scaling up successful programs has proved very difficult in education. In this chapter, Chris Dede discusses the challenges in creating scalable and sustainable educational interventions.
"Computer-mediated communication" refers to communication between people that occurs through the medium of the computer, and includes email, instant messages, chat rooms, newsgroups, and blogs. Learning sciences researchers have made great progress in understanding how CMC can be used to connect learners together, and to allow learners to connect with society at large.
We use the acronym WILD to refer to Wireless Interactive Learning Devices. WILD are powerful and small handheld networked computing devices. The smallest handheld computers fit in one hand easily. The user interacts with the device either by touching the screen with a pen-shaped stylus, or by typing with both thumbs on a small keyboard known as a thumb-pad keyboard. The largest are the size of a paperback book and have a keyboard that is large enough to type on with all ten fingers. Their low price point and high usability has captured the imagination of educators and learning scientists. The
Knowledge building, as elaborated in this chapter, represents an attempt to refashion education in a fundamental way, so that it becomes a coherent effort to initiate students into a knowledge creating culture. Accordingly, it involves students not only developing knowledge-building competencies but also coming to see themselves and their work as part of the civilization-wide effort to advance knowledge frontiers. In this context, the Internet becomes more than a desktop library and a rapid mail-delivery system. It becomes the first realistic means for students to connect with civilization
In this chapter we explore how people build new theories in the context of collaborative scientific thinking. As illustrated by many of the chapters in this volume, our default notion of "scientific thinking" has changed from that of the lone scientist or student toiling away on a magnum opus or in the laboratory, to that of people working as part of collaborative groups who negotiate goals for the task, co-construct knowledge, and benefit from the diverse prior knowledge that each collaborator brings to the table. In some ways, conceptualizing scientific thinking as fundamentally
For children to achieve an understanding of science and of the ways of doing science, and for them to be motivated to use these ways in coping with, understanding, and enjoying the physical, biological, and social world around them, it is not enough that they believe that science is practically important. They must also be curious. Curiosity calls attention to interesting, odd, and sometimes important items in the drama that is revealed to us through our senses. Idle or purposeful, curiosity is the motor that interests children in science; it is also the principal motor that energizes and
In the increasingly fierce competition for leisure time and educational spending, museums are seriously challenged by edutainment, the Internet, CD-ROMs, and 500-channel satellite TV. For example, if a child is interested in dinosaurs, 20 years ago a parent would have been likely to take her to the museum to see some fossils. Today, many parents would probably begin by taking her to the computer to search the World Wide Web, where a quick search reveals thousands of dinosaur web pages. If the family did not find a site among these thousands that satisfied the child's curiosity - or if they
Years before encountering their first formal science lessons in elementary school, children may already be practicing scientific thinking on a weekly, if not daily, basis. In one recent survey, parents reported that their kindergartners engaged, on average, in more than 300 informal science education activities per year - watching science television shows, reading science-oriented books, and visiting museums and zoos (Korpan, Bisanz, Bisanz, Boehme, & Lynch, 1997). This strikes us as a lot, but it is likely to pale in comparison to what young children may experience five years from now
In this chapter we introduce the notion of islands of expertise, explore links between related socio-cultural and information processing theory, and overview a study of family conversations while parents and children look at authentic and replica fossils in a museum.
The notion that science is unified in one way or another dates back at least to Aristotle, though unity claims since then have been diverse and va riously motivated. By way of introduction to the modern discussion of unity, disunity, and integration, in this first section we examine five historical attempts to unify knowledge: Aristotle’s metaphysical and hierarchical unity; the Enlightenment project of the French Encyclopedists; the systematic unity of Naturphilosophen Lorenz Oken; the methodological unity of the Vienna School’s Encyclopedia of Unified Science; and finally, the organizational
This chapter is a selection from the book "The Arts, Education, and Aesthetic Knowing." Should arts education have a more significant place in our schools? An emphatic 'Yes' comes from the editors and other contributors to this provocative volume. They build their case by drawing upon recent developments in cognitive theory and, in particular, upon contemporary thought regarding aesthetic knowing. They contend that aesthetic knowing constitutes a 'special mode of cognition' and they see aesthetic learning as vital to intellectual growth and development. They argue that the arts should