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Peer reviewedLorsbach, Anthony W,; Basolo, Fred, Jr. – Learning Environments Research, 1998
Classroom observations and student interviews revealed that students perceived science as primarily a set of facts to be learned and did not view it as an inquiry method or a social process. Presents student and teacher perceptions and discusses recreating the learning environment to make it more consistent with contemporary perspectives on the…
Descriptors: Educational Environment, Educational Research, Inquiry, Middle Schools
Peer reviewedBrody, Michael J.; deOnis, Ann – Science Teacher, 2001
Presents a density study in which students calculate the density of limestone substrate to determine if the specimen contains any fossils. Explains how to make fossils and addresses national standards. (YDS)
Descriptors: Archaeology, High Schools, Inquiry, Junior High Schools
Kao,Yvonne S; Zenner, Greta M.; Gimm, J. Aura – Science Scope, 2005
Nanotechnology deals with machines, materials, and structures and their behaviors at the scale of atoms and molecules, or the nanoscale. By working on this scale, scientists are able to create enhanced materials with desirable properties, such as stain-resistance. The authors developed the activity described in this article to introduce middle…
Descriptors: Teaching Methods, Scientific Principles, Scientific Research, Scientists
Akerson, Valarie L.; Hanuscin, Deborah L. – Journal of Research in Science Teaching, 2007
This study assessed the influence of a 3-year professional development program on elementary teachers' views of nature of science (NOS), instructional practice to promote students' appropriate NOS views, and the influence of participants' instruction on elementary student NOS views. Using the VNOS-B and associated interviews the researchers…
Descriptors: Teaching Methods, Scientific Principles, Faculty Development, Professional Development
Iredale, Mathew – London Review of Education, 2007
In the final paragraph of his 1984 book "From knowledge to wisdom, a revolution in the aims and methods of science," the philosopher Nicholas Maxwell boldly declared that an intellectual revolution was underway in the aims and methods of science, and academic inquiry in general, from what he termed knowledge-inquiry to wisdom-inquiry.…
Descriptors: Scientific Methodology, Inquiry, Intellectual History, Scientific Concepts
Shavelson, Richard J., Ed.; Towne, Lisa, Ed. – 2002
This book presents a report on the nature and value of scientific research and with the increasing trend in evidence-based education, explains the similarities and differences between scientific inquiry and inquiry in other disciplines. Contents include: (1) "Accumulation of Scientific Knowledge"; (2) "Guiding Principles for Scientific Inquiry";…
Descriptors: Educational Research, Higher Education, Inquiry, Problem Based Learning
Gilbert, Steven W.; Ireton, Shirley Watt – 2003
The National Science Education Standards (NSES) emphasize the use of models in science instruction by making it one of the five unifying concepts of science, applicable to all grade levels. The NSES recommend that models be a focus of instruction--helping students understand the use of evidence in science, make and test predictions, use logic, and…
Descriptors: Elementary Secondary Education, Inquiry, Learning Strategies, Mathematical Models
Gunstone, R. F.; Loughran, J. J.; Berry, A.; Mulhall, P. – 1999
This position statement begins with an outline of the meanings for terms that are central to the session topic at which this paper was presented: inquiry, inquiry learning, scientific inquiry, and scientific method. The central issues of inquiry's place in science education and as a more general educational approach are then discussed. Finally,…
Descriptors: Elementary Secondary Education, Inquiry, Learning Processes, Learning Strategies
Peer reviewedTrautmann, Nancy M.; Carlsen, William S.; Eick, Charles J.; Gardner, Francis E., Jr.; Kenyon, Lisa; Moscovici, Hedy; Moore, John C.; Thompson, Mark; West, Sandra – Journal of College Science Teaching, 2003
Describes a cooperative project that integrates the internet into the peer-review process to enhance student understanding of the nature of science through engagement in socially authentic scientific research and the double-blinded peer review process. Reports the ratings of faculty and students of the online peer review. (Author/YDS)
Descriptors: Educational Technology, Higher Education, Inquiry, Internet
Peer reviewedBell, Randy L.; Blair, Lesley M.; Crawford, Barbara A.; Lederman, Norman G. – Journal of Research in Science Teaching, 2003
Explicates the impact of an 8-week science apprenticeship program on a group of high-ability secondary students' understanding of the nature of science and scientific inquiry. Reports that although most students did appear to gain knowledge about the process of scientific inquiry, their conceptions about key aspects of the nature of science…
Descriptors: Apprenticeships, Concept Formation, Engineering Education, Epistemology
Peer reviewedPyle, Eric J.; Akins-Moffatt, Jennifer – Electronic Journal of Science Education, 1999
Reports on a study designed to (a) determine the effects of visually-enhanced, hands-on student instruction as compared with non-visually enhanced hands-on instruction, and (b) test the feasibility of using simple concept map-like structures as a means of determining student conceptual growth in a non-language dependent manner. Concludes that the…
Descriptors: Elementary Secondary Education, Higher Education, Inquiry, Professional Development
Peer reviewedLederman, Norman G. – Electronic Journal of Science Education, 1998
Clarifies the meaning of the Nature of Science (NOS) and scientific inquiry in the context of reform efforts in science education. Delineates several misconceptions promoted (or ignored) by reform efforts. Proposes that without explicit instructional attention to the NOS and scientific inquiry, students will once again learn science subject matter…
Descriptors: Elementary Secondary Education, Higher Education, Inquiry, Professional Development
Peer reviewedStinner, Arthur – Science Education, 1989
Discussed are two contrasting views about the nature of scientific thinking including Pearson's and Collingwood's. The contexts of questions, methods, problems, experiments, and history are described as contexts of inquiry. The physical thoughts of scientists from pre-Aristotelian times to the present are outlined in relation to contexts of…
Descriptors: Inquiry, Physics, Problem Solving, Science History
Peer reviewedBoujaoude, Saouma – Science Teacher, 1995
Contains three demonstrations to help students develop an adequate understanding of the nature of science. Two use the inquiry method to show students the importance of evidence in formulating explanations, and the third uses the history of science to show that science is tentative as well as based on evidence. (LZ)
Descriptors: Demonstrations (Science), Experiments, Inquiry, Instructional Materials
Peer reviewedGess-Newsome, Julie – Science and Education, 2002
Describes and evaluates an elementary science methods course in which the nature of science and scientific inquiry are embedded and explicitly taught. As a result of the course, incoming conceptions of science as primarily a body of knowledge changed to a more appropriate, blended view of science as a body of knowledge generated through the active…
Descriptors: Concept Formation, Elementary Education, Epistemology, Inquiry

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