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Peer reviewedCain, Lee C. – Social Studies, 1971
Descriptors: Communication (Thought Transfer), Concept Formation, Language Ability, Language Acquisition
Peer reviewedGuthrie, John T. – Journal of Educational Psychology, 1971
Descriptors: Black Students, Concept Formation, Grade 5, Grade 6
Peer reviewedKerpelman, Joan P.; Himmelfarb, Samuel – Journal of Personality and Social Psychology, 1971
Descriptors: Attitudes, Cognitive Processes, College Students, Communication (Thought Transfer)
Bart, William M. – Sch Rev, 1970
Zoltan Dienes places great emphasis on the process of concept formation in the acquiring of an understanding of mathematical logic. Student motivation and interest are prime factors in this process. To assist students in the formation of mathematical concepts, teachers should rely on inductive methods. (CK)
Descriptors: Concept Formation, Educational Objectives, Educational Philosophy, Induction
Peer reviewedArons, Arnold – Physics Teacher, 1981
Summarizes observations of differences in cognitive processes in college physics students. Provides examples of trains of thought and misconceptions exhibited by students and suggests procedures to help resolve the difficulties. (CS)
Descriptors: Cognitive Processes, College Science, College Students, Concept Formation
Peer reviewedBurger, Agnes Lin; And Others – American Journal of Mental Deficiency, 1980
The ability of 47 EMR (educable mentally retarded) and 51 nonretarded children (ages 8 to 15) to maintain and generalize a sorting and retrieval strategy designed to facilitate recall and clustering was examined. Neither the far generalization data nor the near generalization data revealed any significant results. (Author)
Descriptors: Concept Formation, Elementary Education, Exceptional Child Research, Generalization
Peer reviewedWilson, John – Journal of Moral Education, 1980
The rules and concepts of basic moral reasoning can be taught without difficulty to quite young children; but educating them to prefer to use these rules is another matter. Kohlberg's stages are not likely to be stages of cognitive reasoning, but indication of the reasoning encouraged by the child's environment. (Author/SJL)
Descriptors: Affective Behavior, Children, Concept Formation, Developmental Stages
Peer reviewedSweller, J. – British Journal of Psychology, 1976
Two experiments were carried out in order to test the effects of task sequence on the speed of rule learning and problem solving. Experiment I involved numerical rule-learning tasks and Experiment II tested the effect of task difficulty and task precedence using problem-solving tasks. (Editor/RK)
Descriptors: Concept Formation, Experiments, Hypothesis Testing, Learning Processes
Peer reviewedCiborowski, Tom – Journal of Cross-Cultural Psychology, 1977
Groups of formally educated and of uneducated rural Kpelle tribesman and children were given conceptual learning problems. The finding that education proved to have no significant effect on rule learning for either a conjunctive or a disjunctive rule is interpreted as indicating that formal education exerts its influence primarily on the way in…
Descriptors: Adolescents, Concept Formation, Cross Cultural Studies, Educational Background
Peer reviewedLarson, Teresa; Middlecamp, Catherine Hurt – Journal of Chemical Education, 2003
Discusses a companion course designed to accompany an introductory chemistry course for preservice teachers. Includes examples of curricular materials and student work. (DDR)
Descriptors: Academic Achievement, Chemistry, College Curriculum, Concept Formation
Peer reviewedSweeney, Aldrin E.; Paradis, Jeffrey A. – Journal of Chemical Education, 2003
Reports on a study of a pilot model of a laboratory training course that provides preservice secondary science teachers the opportunity to explore pedagogical possibilities and gain hands-on experience running a general chemistry lab. (DDR)
Descriptors: Chemistry, College Curriculum, Concept Formation, Educational Strategies
Peer reviewedHammer, David; Elby, Andrew – Journal of the Learning Sciences, 2003
Explores connections between naive epistemology and everyday instructional practice. Reviews examples of naive epistemologies as made up of fine-grained, context-sensitive resources. Presents strategies designed to help students tap those resources for learning introductory physics. Reflects on this work as an example of interplay between two…
Descriptors: Cognitive Development, Concept Formation, Curriculum Design, Epistemology
Peer reviewedGravett, S. – South African Journal of Higher Education, 1995
Argues, based on a constructivist view of learning, that if knowledge is constructed rather than recorded as received, instruction must be viewed as creating learning environments that enhance the process of knowledge construction, and should guide, support, and accompany students in constructing an increasingly sophisticated understanding of…
Descriptors: College Environment, College Instruction, Concept Formation, Constructivism (Learning)
Peer reviewedLesh, Richard; Harel, Guershon – Mathematical Thinking and Learning, 2003
Describes similarities and differences between modeling cycles and stages of development. Includes examples of relevant constructs underlying children's developing ways of thinking about fractions, ratios, rates, proportions, or other mathematical ideas. Concludes that modeling cycles appear to be local or situated versions of the general stages…
Descriptors: Concept Formation, Curriculum Development, Learning Processes, Mathematical Concepts
Peer reviewedFrid, Sandra – Mathematics Education Research Journal, 2002
Investigates student learning in a mathematics enrichment program offered via the Internet. Describes a course aimed at fostering students' capabilities to work like a mathematician. Examines students' correspondence and work for evidence of how students were working mathematically. Explains how to design both face-to-face and on-line teaching to…
Descriptors: Concept Formation, Educational Environment, Educational Technology, Electronic Mail


