In our efforts to sustain U.S. productivity and economic strength, underrepresented minorities (URM) (for the purpose of this paper defined as persons of African American, Hispanic American, and Native American racial/ethnic descent), provide an untapped reservoir of talent that could be used to fill technical jobs. Over the past 25 years, educational diversity programs have encouraged and supported URM pursuing STEM degrees. Yet, their representation in STEM still lags far behind that of White, non-Hispanic men.
To understand the reasons why this is occurring, the American Association for
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Yolanda S. GeorgeVirginia Van HorneShirley M. Malcom
As part of a focus group exploratory study into the feasibility of presenting to the public an on-going review of new findings or issues in major fields of science research, 128 adult participants noted which two of ten contemporary science research areas they were most interested in. Of note is the fact that all classification variables (except gender) were unrelated to topic appeal. Interest in each research topic was not influenced by age; educational level; minority/majority grouping; total household income; occupational status; and perceived need for science knowledge in one's employment
This article describes a partnership between Seton Hall University and the Liberty Science Center to engage preservice teachers in teaching and learning science. The partnership program offered preservice teachers the opportunity to interact with displays and demonstrations, teach and interact with the public, participate in professional development activities, and communicate with diverse groups.
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Debra ZinicolaRoberta Devlin-Scherer
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
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
Science beyond the schoolhouse is the subject of this close-up look at informal science--education in non-traditional settings, including Boys and Girls Clubs, 4-H, zoos, aquariums, and public television. More than a dozen writers draw on personal experiences to tell why they became informal science educators and how they use the history and theory of traditional science education in their work. Among the features of this book for informal science educators are a resource directory and a special section on program evaluation. Articles include: (1) "The Symbiosis of Formal and Informal
This volume explores the integration of recent research on everyday, classroom, and professional scientific thinking. It brings together an international group of researchers to present core findings from each context; discuss connections between contexts, and explore structures; technologies, and environments to facilitate the development and practice of scientific thinking. The chapters focus on: * situations from young children visiting museums, * middle-school students collaborating in classrooms, * undergraduates learning about research methods, and * professional scientists engaged in
Young children's everyday scientific thinking often occurs in the context of parent-child interactions. In a study of naturally occurring family conversation, parents were three times more likely to explain science to boys than to girls while using interactive science exhibits in a museum. This difference in explanation occurred despite the fact that parents were equally likely to talk to their male and female children about how to use the exhibits and about the evidence generated by the exhibits. The findings suggest that parents engaged in informal science activities with their children may
This seminal book describes the nature and extent of science learning in America with particular attention to the innumerable sources of science education existing outside the formal education system.
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Institute for Learning InnovationJohn H Falk