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Plants, Helen L.; Venable, Wallace S. – J Eng Educ, 1970
This article describes controlled experiment sponsored by Bureau of Research, Office of Education, to determine whether it is better to present a demonstration before or after discussion of the theory involved, with the conclusion that skills were best taught by presenting demonstration before theory. (IR)
Descriptors: Curriculum Evaluation, Engineering Education, Experimental Teaching, Problem Solving
Peer reviewedWoods, Donald R., Ed. – Chemical Engineering Education, 1980
Illustrates a variety of approaches that can be used in training undergraduates, graduates, and professionals in industry to solve trouble shooting or diagnostic problems. (CS)
Descriptors: Chemistry, College Science, Engineering Education, Higher Education
Engineering Education, 1979
Students of the Problem-Solving Project Group report on the results of a two-year study of how they solve problems. (BB)
Descriptors: Cognitive Style, Computation, Engineering Education, Higher Education
Peer reviewedMahendran, M. – Journal of Engineering Education, 1995
Analyzes the effectiveness of introducing practical design projects at an early stage within a civil engineering undergraduate program. Traces the success of this strategy at each stage from its introduction to the final evaluation. Findings indicate that the projects were successful in improving the understanding of basic concepts and encouraging…
Descriptors: Civil Engineering, Educational Strategies, Evaluation, Higher Education
Peer reviewedCroft, Frank M. Jr. – Engineering Design Graphics Journal, 1998
Evaluates the use of modern CAD methods to solve geometric problems. Solves descriptive geometry problems using the layout and position of the successive auxiliary views from the projection of three-dimensional figures onto a two-dimensional plane of paper. (CCM)
Descriptors: Computer Assisted Design, Engineering Graphics, Geometric Concepts, Mathematics Activities
Peer reviewedKolmos, Anette – European Journal of Engineering Education, 1996
Defines and compares project-organized learning and problem-based learning at a theoretical and practical level. Outlines differences and similarities both for institutions practicing and for institutions planning to implement some of these educational ideas. Contains 14 references. (JRH)
Descriptors: Engineering Education, Foreign Countries, Higher Education, Learning Strategies
Peer reviewedWoodring, Kathleen Mills – Science Teacher, 2000
Introduces a project of constructing a rover that can maintain its upright position with minimal gravitation that is based on National Aeronautics and Space Administration (NASA) Jet Propulsion Laboratories rover designs. Tests the project in NASA's "Vomit Comet" under zero-gravity environment. (YDS)
Descriptors: Design, Engineering, Gravity (Physics), Hands on Science
Starkman, Neal – T.H.E. Journal, 2007
US students continue to lag behind the rest of the world in science, technology, engineering, and math--taken together, STEM. Even as the US falls further and further behind other countries in these four critical academic areas, not everyone sees it as a crisis. Fortunately, there are those who do. One organization out front on the issue is,…
Descriptors: Middle Schools, Problem Solving, Technology Education, Engineering Education
Asunda, Paul A.; Hill, Roger B. – Journal of Industrial Teacher Education, 2008
The purpose of this study was to describe a process of preparing technology education teachers to teach engineering design concepts in the context of technology education. This process was identified through a study of professional development activities that were organized and conducted by technology teacher education partner universities of the…
Descriptors: Elementary Secondary Education, Engineering Education, Professional Development, Technology Education
Kuehner, Joel P.; Mauch, Elizabeth K. – Teaching Mathematics and Its Applications: An International Journal of the IMA, 2006
A method for teaching problem-solving skills to mathematics students is presented. By subtly incorporating engineering applications, the students are simultaneously exposed to an effective outreach programme. The process includes offering a complex problem that challenges students' abilities. Before allowing the students to become frustrated, the…
Descriptors: Teaching Methods, Mathematical Models, Problem Solving, Engineering
Carlsen, William S. – 1996
This paper reports on a longitudinal study of the incorporation of engineering design into secondary classrooms by math, science, and technology teachers who were alumni of a week-long intensive inservice course at the Thayer School of Engineering at Dartmouth College (New Hampshire). Data collection methods included observations and interviews,…
Descriptors: Engineering, High Schools, Models, Problem Solving
Larsen, William L. – Engineering Education, 1975
Outlines one approach to the teaching of materials engineering design within the context of metallurgical engineering. This approach uses a problem solving situation and criteria for an appropriate problem are presented. (GS)
Descriptors: Course Descriptions, Curriculum, Design, Engineering Education
CHANCE, CLAYTON W. – 1960
AN INVESTIGATION WAS MADE TO DETERMINE WHETHER AN OVERHEAD PROJECTOR AND TRANSPARENCY SET WOULD BE MORE EFFECTIVE AND ACCEPTABLE TO TEACHERS AND STUDENTS THAN TIME-PROVEN CHALKBOARD DRAWINGS IN THE TEACHING OF A DESCRIPTIVE GEOMETRY COURSE. IT WAS FOUND THAT (1) THE LECTURE-DEMONSTRATION PERIOD CAN BE REDUCED TO ALLOW A LONGER SUPERVISED…
Descriptors: Comparative Analysis, Conventional Instruction, Engineering Drawing, Geometry
Gunderson, Norman O. – 1975
The Master's Degree Program in Cybernetic Systems was proposed a decade ago as an interdisciplinary problem-solving oriented educational effort. Implemented seven years ago, it has developed into a successful continuing education vehicle for mid-career professionals. Those proposing the program recognized that without guidelines to follow, it must…
Descriptors: Computers, Cybernetics, Educational Television, Engineering Education
Johnson, John W. – 1975
Engineering mechanics is recognized as one of the core subject matter areas of most engineering and technology educational programs. The study of mechanics and particularly the applications of problem solving to rigid bodies at rest (statics) has proven to be troublesome to students. Systematic problem solving includes analysis, synthesis, and…
Descriptors: Autoinstructional Aids, Computer Assisted Instruction, Engineering Education, Higher Education

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