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Glass, Lynn W.; Yager, Robert E. – Amer Biol Teacher, 1970
Students who solved problems individually or in small informal groups understand science and scientists better than those who solved the same problems (based on BSCS Blue Version) as a class group. (AA)
Descriptors: Biology, Individualized Instruction, Instruction, Problem Solving
Stolle, Carlton D. – J Bus Educ, 1970
Descriptors: Case Studies, Consultants, Evaluation Needs, Management Development
Peer reviewedHenderson, George L.; Van Beck, Mary – Arithmetic Teacher, 1970
Descriptors: Ecology, Elementary School Mathematics, Environmental Education, Instruction
Peer reviewedWardrop, R. F. – Arithmetic Teacher, 1970
Explains a discovery activity using the possible positions of the faces of a cube when represented in two dimensions. Suggests rules which would determine which of the edges would connect if the drawing were folded to form the cube. (RS)
Descriptors: Discovery Processes, Geometric Concepts, Induction, Instruction
Kornreich, L. Berell – J Educ Psychol, 1969
Paper presented at the annual meeting of the American Psychological Association, San Francisco, August, 1968. Reprints from: L. Berrell Kornreich, Dept of Psychology, Univ of Wisconsin, Milwaukee, Wisconsin, 53201.
Descriptors: Concept Formation, Discovery Learning, Identification, Methods Research
Peer reviewedDewald-Link, Margaret R.; Wallace, Sharon A. – Clearing House, 1983
Describes a problem solving teaching approach that can be used in dealing with real problems in the home economics classroom. (FL)
Descriptors: Critical Thinking, Home Economics Education, Instructional Innovation, Problem Solving
Mills, Joan S. – Journal of Developmental & Remedial Education, 1982
Describes the modeling approach as used in North Carolina State University's tutoring program. Reviews the modeling process, which focuses on teaching the process of problem solving through example. Discusses tutor training and the content of tutorial sessions. Outlines student benefits. (AYC)
Descriptors: Higher Education, Modeling (Psychology), Problem Solving, Program Descriptions
Martinson, Tom L. – Indiana Social Studies Quarterly, 1981
Discusses the use of the Guided Design teaching method to teach college-level Latin American geography. This method allows the analysis of spatial patterns and processes and critical-thinking skills. (AM)
Descriptors: Critical Thinking, Geography Instruction, Higher Education, Problem Solving
Peer reviewedLeBlanc, John F. – Arithmetic Teacher, 1982
Teaching story problems is seen to offer opportunities for developing the problem-solving process. Four steps described by George Polya are interpreted for the classroom as: (1) Tell, (2) Show, (3) Solve, and (4) Check. The teacher's role is detailed and the process is viewed to work for all problem types. (MP)
Descriptors: Elementary Education, Elementary School Mathematics, Mathematics Education, Mathematics Instruction
Peer reviewedWalstad, William – Social Studies, 1980
Describes a problem-solving model developed by economists that incorporates the use of economics into the high school social studies curriculum. Model components include defining the issue, identifying objectives, looking for ways to achieve objectives, identifying pertinent economic concepts, analyzing alternatives, and evaluating which…
Descriptors: Economics Education, Learning Activities, Models, Problem Solving
Pickhardt, Carl E. – Training, 1980
Discusses how to recognize volatile situations, cope with the challenge, and reassert control in the training environment. Examined are ways in which hostility is expressed, statements of protest, when hostility triggers fear, coping with fear, ways of responding to hostility, and how to survive hostility. (CT)
Descriptors: Coping, Fear, Hostility, Problem Solving
Peer reviewedManzo, Anthony V.; Casale, Ula – Reading Horizons, 1980
Provides a set of guidelines that has been developed to aid students in meeting various reading, learning, and study needs while internalizing the fundamentals of problem solving. The code words for the steps in the suggested problem-solving process are: count, characterize, consider, collect, and create. (MKM)
Descriptors: Critical Thinking, Elementary Secondary Education, Problem Solving, Productive Thinking
Lolla, Raymond S.; Miller, D. Glen – Man/Society/Technology, 1980
Using the design and production of a ceramic container as a student activity, the authors present a method to involve industrial arts students in creative problem solving. Students are provided with a problem that requires them to inventory their industrial arts facilities and available materials to solve the problem. (CT)
Descriptors: Ceramics, Industrial Arts, Problem Solving, School Shops
Peer reviewedRossman, Mark H.; Rossman, Maxine E. – Lifelong Learning: The Adult Years, 1980
Defines assertive, nonassertive, and aggressive behavior. Discusses assertiveness training as a technique for self-growth, staff development, and teacher effectiveness. (SK)
Descriptors: Adult Education, Assertiveness, Behavior Modification, Problem Solving
Bass, Lawrence S. – Instructor, 1981
Presents a six-step problem-solving process which the author has used to present creative science investigations to fourth, fifth, and sixth graders. (Author/SJL)
Descriptors: Elementary School Science, Intermediate Grades, Lesson Plans, Problem Solving


