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Coles, P. – South Australian Science Teachers Journal, 1976
Answers the question posed in the title by listing the aims of science study and advocating that courses be designed around basic themes. (GS)
Descriptors: Instruction, Objectives, Problem Solving, Science Education
Russell, Diane; Russell, Peter – 1999
"Scientific ways of thinking and problem solving are deeply ingrained in how we think and act, day by day. Scientific approaches are used, often unknowingly, by most people." Most of us would agree with this statement which comes from the National Science Statement but it does not apply to Anangu and many other indigenous people. Anangu,…
Descriptors: Foreign Countries, Indigenous Populations, Problem Solving, Science Education
Dukes, Phillip; Pritchard, David E.; Morote, Elsa-Sofia – 2002
This paper addresses two questions: "Does conceptual understanding help students solve related quantitative problems?" and "Does working through a quantitative problem help students understand the concepts involved?" A class of approximately 100 students was split into two equally skillful groups, A and B. Group A was administered a tutorial…
Descriptors: Cognitive Processes, Educational Strategies, Higher Education, Physics
Peer reviewedDunlop, David L.; Fazio, Frank – School Science and Mathematics, 1979
The relationship between a student's stated preference for solving a problem and his/her actual problem methodology, concrete or abstract, was studied. Comparisons were made between formal and nonformal students. (MP)
Descriptors: Abstract Reasoning, Cognitive Development, Problem Solving, Research
Peer reviewedGalus, Pamela J. – Science Teacher, 2003
Describes an activity on density and its role on an object's floating or sinking. Uses canned regular and diet Coke soda pop to demonstrate differences in density. (YDS)
Descriptors: High Schools, Inquiry, Physical Sciences, Problem Solving
Brekke, Stewart E. – SPECTRUM, 2003
Points out the importance of problem solving as a fundamental skill and how students struggle with problem solving in physics courses. Describes a workbook developed as a solution to students' struggles that features simple exercises and advanced problem solving. (Contains 12 references.) (Author/YDS)
Descriptors: High Schools, Instructional Materials, Physics, Problem Solving
Peer reviewedJohnson, Susan K.; Stewart, Jim – Science Education, 2002
Describes the model-revising problem-solving strategies of two groups of students (one successful, one unsuccessful) as they worked in a genetics course to revise Mendel's simple dominance model to explain the inheritance of a trait expressed in any of four variations. Finds differences in the groups' abilities to recognize anomalous data, use…
Descriptors: Academic Achievement, Cooperative Learning, Genetics, Problem Solving
Peer reviewedNiaz, Mansoor – Science Education, 1995
Describes a study with the main objective of constructing models based on strategies students use to solve chemistry problems and to show that these models form sequences of progressive transitions termed "problemshifts" that increase the explanatory/heuristic power of the model. Results implies that the relationship between algorithmic…
Descriptors: Algorithms, Chemistry, Concept Formation, Models
Peer reviewedStaver, John R.; Lumpe, Andrew – Journal of Research in Science Teaching, 1995
Examines the following research questions and others: (1) How do students define the mole concept? and (2) Is there a connection between student's definition of the mole concept and their explanations of the numerical identity between the atomic or molecular mass and molar mass of a substance? Results are discussed in terms of research in chemical…
Descriptors: Chemical Nomenclature, Chemistry, Higher Education, Problem Solving
Peer reviewedGreenslade, Thomas B. – Physics Teacher, 1994
Describes how Newton's Law of Cooling and the Method of Mixtures are used to solve the basic dilemma of whether to add the cool cream to the hot coffee or to let the black coffee cool down first and then add the cream. (ZWH)
Descriptors: Heat, Physics, Problem Solving, Science Education
Peer reviewedStahl, Frieda – Physics Teacher, 1994
Provides a method to help students understand problem-solving techniques used in introductory physics courses. (MVL)
Descriptors: Higher Education, Misconceptions, Nonmajors, Physics
Peer reviewedMeyer, Edwin F., III – Physics Teacher, 1995
Notes that when using the screw as a simple machine, the pitch of the screw is important in the amount of force that will be produced. (MVL)
Descriptors: Force, Hand Tools, Misconceptions, Physics
Peer reviewedMehler, Alan H. – Biochemical Education, 1991
Suggests reasons for the lack of change in biochemistry courses and proposes mechanisms to enhance change. Advocates a problem-solving approach using nontraditional questions on examinations. Provides examples of how traditional questions can be rewritten to reflect a problem-solving approach. (PR)
Descriptors: Biochemistry, Educational Change, Evaluation, Higher Education
Peer reviewedGrau, Roberto R.; And Others – Biochemical Education, 1991
Authors propose a simple and inexpensive activity to provide an exciting source of information about biological processes that occur during eutrophication of lakes and ponds. The observations and interpretations that take place during the eutrophication of the Windogradsky water column constitutes an illustrative approach for understanding…
Descriptors: Biochemistry, Educational Change, Evaluation, Higher Education
Jickling, Bob – Clearing, 1991
Some misconceptions about the roles of action and problem solving in environmental education are examined. It is argued that the use of the term problem solving exaggerates the abilities of environmental educators and students. The implications of establishing problem solving as a goal of environmental education are discussed. (KR)
Descriptors: Environmental Education, Environmental Influences, Misconceptions, Problem Solving


