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Khoumsi, Ahmed; Hadjou, Brahim – Journal of STEM Education: Innovations and Research, 2005
Our department has redesigned its electrical and computer engineering programs by adopting a learning methodology based on competence development, problem solving, and the realization of design projects. In this article, we show how this pedagogical approach has been successfully used for learning probabilities and their application to computer…
Descriptors: Engineering Education, Computers, Computer System Design, Probability
Leibold, B. G.; And Others – Engineering Education, 1976
Presented is a problem solving strategy emphasizing the definition step. Detailed analysis of the process of problem definition is included. (SL)
Descriptors: Creative Thinking, Critical Thinking, Engineering Education, Higher Education
Culp, Katie McMillan; Keane, Julie Thompson; Meade, Terri; Nudell, Hannah – Education Development Center, Inc., 2004
Between May 2003 and January 2004, Education Development Center's Center for Children and Technology (CCT) undertook a formative evaluation of Design and Discovery, a hands-on, project-based design and engineering curriculum being disseminated as part of the Intel Innovation in Education initiatives. The Design and Discovery curriculum invites 11-…
Descriptors: Educational Innovation, Formative Evaluation, Engineering, Educational Technology
Zodik, Iris; Zaslavsky, Orit – International Group for the Psychology of Mathematics Education, 2004
The study was carried out within the framework of a project that provided afterschool mathematics tutorial sessions to 10th-12th grade students by engineers in an informal setting. The participating students were selected from advanced level mathematics classes according to their need for additional support. The main goal of the study was to…
Descriptors: Problem Solving, Mathematics Instruction, Grade 10, After School Education
O'Donnell, Angela M.; DuRussel, Lori Adams; Derry, Sharon J. – 1997
The paper presents literature related to the problems and promises of interdisciplinary work. Important characteristics of effective work groups are described, and origins of difficulty in groups are discussed. Most work on groups has been based on research on groups that come together only in the laboratory. These groups are different from…
Descriptors: Cognitive Processes, Elementary Secondary Education, Engineering, Group Dynamics
Malave, Cesar O.; Watson, Karan L. – 2000
This paper presents implementation details related to the freshman integrated curriculum at Texas A&M University. Specifically, the need for strong integration between physics, calculus, engineering problem solving, engineering design graphics, and English is emphasized. The paper presents a brief summary of the design and pilot implementation…
Descriptors: Calculus, College Freshmen, Curriculum Development, Educational Technology
Huang, David Wenhao; Aagard, Hans; Diefes-Dux, Heidi – Association for Educational Communications and Technology, 2004
This article describes the purpose, development, and implementation of a cognitive-based instructional intervention and its impact on learning motivation. The study was conducted in a programming-based problemsolving course for first-year engineering students. The results suggest that the instructional intervention developed based on the…
Descriptors: Learning Motivation, Intervention, Engineering Education, Instructional Design
Thomas, Donald H. – Engineering Education, 1974
Discusses the use of varied resources to conduct undergraduate systems design courses at the Drexel University with the support of the Sloan Foundation. The purpose is to provide students with an ability to develop solutions to problems encountered in a real, living, and dynamic situation. (CC)
Descriptors: Course Descriptions, Course Objectives, Educational Programs, Engineering Education
Peer reviewedLarkin, Jill H.; Reif, F. – European Journal of Science Education, 1979
Describes a systematic study of skills for solving problems in basic physics. Also discusses how detailed observations of individuals were used to formulate models for problem-solving processes in mechanics and applications for teaching basic college physics or engineering courses. (HM)
Descriptors: College Science, Engineering Education, Higher Education, Instruction
Peer reviewedNalence, Eugene E. – Science Teacher, 1980
Describes secondary-school minicourses which provide an opportunity for examination of the interactions between science, technology, society and the investigation of science principles. The need for such minicourses is justified through the demands placed on citizens to rationally evaluate alternate solutions to problems confronting society which…
Descriptors: Case Studies, Curriculum Development, Engineering Education, Minicourses
Parker, Anne – Technical Writing Teacher, 1990
Describes the problem-solving approach implemented in the University of Manitoba's first-year technical communication course. Considers technical writing as a process which can be broken down into steps: classify, analyze, test, and solve. Explains that this process offers students the methodology and flexibility they need to solve either…
Descriptors: Content Area Writing, Engineering Education, Evaluative Thinking, Higher Education
Peer reviewedSlaughter, Joseph M.; And Others – Chemical Engineering Education, 1991
Three mathematics software packages, MathCAD, Point Five, and TK Solver Plus, are described and compared. The packages were rated on the accompanying documentation, ease of learning, ease of use, matrix operations, equation solving capability, versatility, use of units, generation of graphs and tables, readability of output, and overall…
Descriptors: Chemical Engineering, Chemistry, College Science, Computation
Peer reviewedWilliams, Donald F.; Glasser, David – Chemical Engineering Education, 1991
An approach that may be used to introduce the fundamental ideas of thermodynamics using a mathematical background with the knowledge of the behavior of matter is described. The physical background, conservation of energy, predicting the behavior of a system, and solving problems are topics of discussion. (KR)
Descriptors: Calculus, Chemistry, College Science, Computation
Peer reviewedCaleb, Linda – Equity & Excellence in Education, 2000
Describes the development of a program for providing young girls at an all-girls school opportunities to problem solve by constructing their solutions using tools and materials unlikely to be part of their home or school experiences. The program combines analytical and problem solving skills with basic engineering concepts. Notes problems…
Descriptors: Elementary Education, Engineering Education, Equal Education, Experiential Learning
Peer reviewedSadler, Philip M.; Coyle, Harold P.; Schwartz, Marc – Journal of the Learning Sciences, 2000
Experiments with exercises that are distinguished from those employed with elite students by reducing competition and increasing cooperation through the use of tests against nature, large dynamic ranges in performance, initial prototype designs, and alternative methods of recording and presenting results. Finds that formulating easily understood…
Descriptors: Concept Formation, Design, Elementary Secondary Education, Engineering Education

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