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Fisher, Nancy; Gerdes, Karen; Logue, Teresa; Smith, Lorna; Zimmerman, Inge – 1998
This report documents a program for improving science knowledge, attitudes, and higher order thinking skills through experiential science. The hands-on approach used successfully in the program is described, and evidence of student improvement is also presented. The targeted population consisted of students in the first, third, and fourth grades…
Descriptors: Achievement, Action Research, Cognitive Development, Critical Thinking
Ediger, Marlow – 1999
This article focuses on the cognitive development of community college students. According to the article, a student can develop higher levels of cognitive reasoning through curricular activities that include problem solving, analytic thinking, and synthesizing exercises. In problem solving, students first identify and define a problem, then…
Descriptors: Academic Achievement, Academic Aptitude, Cognitive Development, Cognitive Processes
Peer reviewedMayer, Victor J.; Richmond, James M. – Science Education, 1982
Summarizes a study of instruments developed for use in assessing aspects of science curriculum and instruction. (PB)
Descriptors: Achievement, Attitudes, Cognitive Development, Evaluation
Peer reviewedFuson, Karen C.; And Others – Journal for Research in Mathematics Education, 1997
Researchers from four projects with a problem-solving approach to teaching and learning multidigit number concepts and operations describe a common framework of conceptual structures children construct for multidigit numbers, and categories of methods children devise for multidigit addition and subtraction. Conceptions include unitary, decade and…
Descriptors: Classroom Techniques, Cognitive Development, Comprehension, Concept Formation
Peer reviewedWoodford, Paul – Music Educators Journal, 1996
Asks the questions (1) what is critical thinking in music?; (2) why is it so important that we engage students in it?; and (3) what does it have to do with music education? Answers these questions and elaborates on the notion of critical thinking as an educational goal and tool. (MJP)
Descriptors: Cognitive Development, Critical Thinking, Educational Benefits, Educational Objectives
Peer reviewedShumway, Richard – For the Learning of Mathematics, 1990
Discussed are supercalculator capabilities and possible teaching implications. Included are six examples that use a supercalculator for topics that include volume, graphing, algebra, polynomials, matrices, and elementary calculus. A short review of the research on supercomputers in education and the impact they could have on the curriculum is…
Descriptors: Algebra, Calculators, Calculus, Cognitive Development
Peer reviewedFriedel, Arthur W.; And Others – School Science and Mathematics, 1990
Discussed is the effectiveness of using analogies in chemistry instruction. Students' mathematics anxiety, spatial visualization skill, and proportional reasoning ability were found to be important aptitudes for determining chemistry achievement. The relationship between analogs and algorithms is described. (KR)
Descriptors: Academic Achievement, Algorithms, Chemistry, Cognitive Development
Peer reviewedBarba, Robertta H. – Science Teacher, 1990
Problem solving is defined and characteristics of good problem solvers are highlighted. The cognitive processes used in problem solving are discussed. Suggestions for methods which can be used to teach problem solving are provided. Research implications from mathematics education are listed. (CW)
Descriptors: Cognitive Development, Computer Uses in Education, Mathematics Education, Problem Solving
Peer reviewedMaloney, David P. – Physics Teacher, 1990
Students' conceptions of the concept of force are discussed. Possible problem formats and exercises are presented. The need for many formats and variations to help students' resolve their conflicting ideas about physics concepts is stressed. (CW)
Descriptors: Cognitive Development, College Science, Force, Higher Education
Peer reviewedThompson, Cathy L. – School Science and Mathematics, 1989
Discusses the advantages of using discrepant events in elementary school science classrooms in terms of motivation and problem solving skills. Describes the materials, procedures, and reasons behind five discrepant activities. (YP)
Descriptors: Cognitive Development, Cognitive Structures, Elementary School Science, Laboratory Experiments
Peer reviewedTudge, Jonathan; Caruso, David – Young Children, 1988
Discusses theory and research that explore the nature of cooperative problem solving and its relationship to learning and development. Offers teaching guidelines that early childhood educators can use to encourage children to interact. (BB)
Descriptors: Class Activities, Cognitive Development, Cognitive Processes, Cooperation
Peer reviewedGray, Edward M. – Educational Studies in Mathematics, 1991
Interviews with 72 mixed ability students, aged 7 to 12, about arithmetic problem-solving strategies, indicated that the preference between procedural and deductive strategies becomes a divergent reality across ability levels. Among the conclusions is that more able children tend to be doing a qualitatively different sort of mathematics than their…
Descriptors: Arithmetic, Cognitive Development, Cognitive Structures, Cognitive Style
Peer reviewedZvonkin, Alexander – Journal of Mathematical Behavior, 1992
Discusses the first session and events from other sessions of a mathematics circle consisting of the author and four preschool children. Presents discussions that ensued with the children when asked to solve problems related to Piaget's stages of cognitive development. (MDH)
Descriptors: Arithmetic, Cognitive Development, Cognitive Processes, Developmental Stages
Peer reviewedYachel, Erna; And Others – Journal for Research in Mathematics Education, 1991
Discussed is the research project that used small-group problem solving as a primary instructional strategy of second grade mathematics for an entire year. The mutual construction of classroom norms for cooperative learning style is illustrated and examples of resulting learning opportunities are given. (MDH)
Descriptors: Classroom Environment, Cognitive Development, Cooperative Learning, Elementary Education
Peer reviewedTaback, Stanley F. – School Science and Mathematics, 1992
Describes three components of a seminar in mathematical problem solving for preservice mathematics teachers: (1) a cognitive component that accents particular phases of problem solving; (2) an affective component that allows for observation of skillful problem solvers; and (3) an investigative component that provides for independent study and…
Descriptors: Cognitive Development, Discovery Learning, Heuristics, Higher Education


