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Peer reviewedAbrams, Eleanor; Southerland, Sherry; Cummins, Catherine – International Journal of Science Education, 2001
Describes trends in students' explanations of biological change in organisms. Student responses to questions on how graphically depicted phenomena occur were analyzed and most students were unable to offer causal explanations. (Contains 27 references.) (DDR)
Descriptors: Biology, Cognitive Processes, Cognitive Structures, Educational Strategies
Peer reviewedde Vos, Wobbe; Verdonk, Adri H. – Journal of Chemical Education, 1987
Discusses the difficulties that some students have in understanding the concept of chemical reactions. Proposes that instructors try to consider the various difficulties during a chemistry course when students form their concepts of element conservation. (TW)
Descriptors: Atomic Structure, Chemical Reactions, Chemistry, Cognitive Structures
Peer reviewedMohapatra, J. K. – Journal of Research in Science Teaching, 1988
Identifies an induced incorrect generalization as a generative cause for the formation of misconception. Analyzes students' protocol of an exploratory learning experiment about the laws of reflection of light. Suggests recommendations for textbook, teaching, and practical work. (Author/YP)
Descriptors: Cognitive Structures, Concept Formation, Generalization, Misconceptions
Lederman, Norman G.; Chang, Huey-Por – 1994
The development and role of subject matter knowledge within teachers' professional development is currently the source of much research; however, the parallel development and role of pedagogical knowledge has yet to be systematically analyzed. In investigating this seldomly tapped area of concern, researchers involved 26 preservice science…
Descriptors: Cognitive Structures, Comparative Education, Educational Research, Foreign Countries
Gunstone, Richard F.; Northfield, Jeff R. – 1986
Perspectives on the need for consistency in considering the promotion of conceptual change in science students and teachers (and in some circumstances, researchers) are presented in this paper. The parallels between the consequences of this consistency and the literature on educational change are also highlighted. A particular focus is directed to…
Descriptors: Cognitive Processes, Cognitive Structures, Concept Formation, Higher Education
Clement, John – 1978
This paper attempts to show that it is possible to analyze a problem solving protocol in which the subject spontaneously generates a series of analogies. The qualitative physics problem given to the subject describes a situation where that which is unfamiliar is often solved by relating it to several analogous situations that are more familiar.…
Descriptors: Analogy, Cognitive Structures, College Science, Higher Education
Peer reviewedMeyer, William Bruce – Journal of Geological Education, 1987
Discusses some of the ways that some scientific concepts evolve and are perpetuated, even if they are not completely accurate. Uses the example of groundwater, citing numerous ways that various people understand it and, in many cases, form misconceptions. (TW)
Descriptors: Cognitive Structures, College Science, Concept Formation, Earth Science
Koen, Billy Vaughn – Engineering Education, 1987
Proposes that there is a universal method for all realms of knowledge. Reviews Descartes's definition of the universal method, the engineering definition, and the philosophical basis for the universal method. Contends that the engineering method best represents the universal method. (ML)
Descriptors: Cognitive Structures, College Science, Engineering, Engineering Education
Peer reviewedClough, Elizabeth Engel; And Others – School Science Review, 1987
Reports on a study designed to examine students' understanding of certain aspects of heat, pressure, and evolution. Results indicated that little change was apparent over the two-year period of the study, with most of the students in the 12 to 14 age range at the same conceptual level as the 14 to 16 year olds. (TW)
Descriptors: Cognitive Structures, Concept Formation, Evolution, Foreign Countries
Peer reviewedAult, Charles R., Jr. – Journal of College Science Teaching, 1985
Concept mapping leads students away from rote learning and toward true understanding of concepts and their relationships. Several sample and student maps on earth science topics are presented and discussed. Applications for science instructors, students, researchers, and teacher educators are also considered. (DH)
Descriptors: Cognitive Structures, College Science, Concept Formation, Concept Mapping
Peer reviewedTrumper, Ricardo – Research in Science and Technological Education, 1997
Reports on a study that addresses the implications of instructional strategies that are used to create cognitive disequilibrations to achieve conceptual change. Discusses several difficulties in the application of such conceptual change strategies. Contains 31 references. (DDR)
Descriptors: Cognitive Psychology, Cognitive Structures, Concept Formation, Conflict
Peer reviewedGrandy, Richard E. – Science and Education, 1997
Constructs the philosophical background and underpinnings of the Science Education Portfolio Instruction and Assessment (SEPIA) project. Explains that students must develop skills in order to participate in epistemic interchanges. They must also be provided opportunities and materials to develop those skills. Contains 29 references. (DDR)
Descriptors: Cognitive Psychology, Cognitive Structures, Constructivism (Learning), Educational Strategies
Peer reviewedBishop, Keith; Denley, Paul – School Science Review, 1997
Considers the strategies of peer group review and concept mapping, both of which faculties in higher education might employ in partnership with schools to reestablish the fundamental role that subject matter knowledge has in science teaching. (DDR)
Descriptors: Cognitive Structures, Concept Mapping, Elementary Secondary Education, Foreign Countries
Peer reviewedWheeler, Alan E.; Hill, Doug – Science Teacher, 1990
Described is the relative complexity of commonly used diagrams in science instruction. Student interpretations of diagrams, implications for science instruction and the prevention of science misconceptions is discussed. (CW)
Descriptors: Cognitive Structures, Concept Formation, Diagrams, Illustrations
Peer reviewedGriffiths, Alan K.; And Others – Journal of Research in Science Teaching, 1988
Investigates the remediation of misconceptions through application of Gagne's hierarchical learning theory. Uses stoichiometry, food levels, and conservation of mechanical energy as the target concepts. Reports that there was no treatment effect in analysis of covariance using pretest scores as a covariant. (YP)
Descriptors: Biology, Chemistry, Cognitive Structures, High Schools


