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Ringwood, J. V.; Monaghan, K.; Maloco, J. – European Journal of Engineering Education, 2005
This paper examines a particular methodology of teaching engineering design to undergraduate engineering students, which relies on Lego[R] Mindstorms[TM]. A number of important issues are addressed, including the timing of the design module within the programme, prior knowledge required and assessment components. The module, which has been running…
Descriptors: Engineering Education, Engineering, Design Crafts, Undergraduate Students
Peer reviewedPudlowski, Zenon J. – European Journal of Engineering Education, 1995
Addresses some major issues that engineering and technology educators have to take into account when developing university curricula. Discusses an integrated approach to modeling a didactic process in engineering education and its application to designing a teaching-learning system. Highlights the important issues and strategies in the development…
Descriptors: Curriculum Development, Engineering Education, Higher Education, Technology Education
Peer reviewedElsayed, E. A. – European Journal of Engineering Education, 1999
Presents an overview of the origin of the industrial engineering discipline and how the subject was taught in the early stages of its development. Describes current changes in the curricula to meet new requirements in industry. (Author/CCM)
Descriptors: Curriculum Development, Engineering Education, Higher Education, Industrial Education
Peer reviewedBranoff, Theodore J.; Hartman, Nathan W.; Wiebe, Eric N. – Engineering Design Graphics Journal, 2003
Summarizes literature in engineering design related to constraint-based modeling. (Author/KHR)
Descriptors: Curriculum Development, Engineering Graphics, Higher Education, Science Instruction
Peer reviewedRidgway, Jim; Passey, Don – Educational Psychology: An International Journal of Experimental Educational Psychology, 1995
Reports on a study of the mathematical needs of engineering apprentices in the United Kingdom. Finds that mathematical skills learned in general education programs do not meet requirements of the engineering profession. Recommends changes in mathematics education. (CFR)
Descriptors: Curriculum Development, Educational Testing, Elementary Secondary Education, Engineering
Peer reviewedFahidy, Thomas Z. – Chemical Engineering Education, 1991
Presents the framework for a chemical engineering course using ordinary differential equations to solve problems with the underlying strategy of concisely discussing the theory behind each solution technique without extensions to formal proofs. Includes typical class illustrations, student responses to this strategy, and reaction of the…
Descriptors: Chemical Engineering, Course Content, Course Descriptions, Curriculum Development
Peer reviewedAbu-Khalaf, Aziz M. – Chemical Engineering Education (CEE), 1998
Reviews the current goals of a laboratory course and describes experiences in using laboratory time to cover several important topics related to industry and academia. Discusses several subjects and presents related experiments. Contains 184 references. (DDR)
Descriptors: Chemical Engineering, College Curriculum, Course Content, Curriculum Development
Roy, Rustum; Knox, Bruce E. – 1983
The major goal of the Educational Modules for Materials Science and Engineering (EMMSE) project is to experiment with a means for developing, indexing, and disseminating instructional materials in materials science and engineering. This document is the updated final report of the project. Key accomplishments discussed (presented in order of…
Descriptors: Ceramics, College Science, Curriculum Development, Engineering
Mowery, Donald R.; Wolf, Lawrence J. – 1979
Project SET (Science and Engineering for Technicians) developed a series of study guides designed to teach generic science and engineering skills to students interested in becoming technicians. An entire 2-year curriculum is encompassed by these guides, geared for 2-year college students. Described in this final report are the project's rationale,…
Descriptors: College Science, Curriculum Development, Curriculum Evaluation, Engineering
Twidwell, L. G. – 1980
Four courses in extractive metallurgy (Pyrometallurgy, Hydrometallurgy, Electrometallurgy; and Physical Chemistry of Iron and Steel) were prepared in a modular, self-paced format. Development of the course materials included: (1) preparation of course outlines by unit coordinators and advisory committees; (2) approval of course outlines (included…
Descriptors: College Science, Continuing Education, Course Descriptions, Curriculum Development
Illinois Inst. of Tech., Chicago. – 1973
Presented is a description of the Education and Experience in Engineering (E3) Program at the Illinois Institute of Technology. Included are the objectives, how the program works, faculty, dissemination of E3 information, integration of science and technology into the E3 program, and the integration of liberal arts and engineering. A chapter is…
Descriptors: Curriculum Development, Engineering, Engineering Education, Evaluation Methods
Wolf, Lawrence J.; And Others – Engineering Education, 1980
Reviews purpose, characteristics, and project results of the Science and Engineering Technology (SET) curriculum project, characterized by an interdisciplinary course of study with a skill focus in electronic instrumentation, leading to an associate degree or to transfer into a baccaulaureate curriculum in science, engineering, or technology. (CS)
Descriptors: Associate Degrees, College Science, Curriculum Development, Electronic Technicians
Peer reviewedGlandt, Eduardo D. – Chemical Engineering Education, 1988
Describes an engineering course for graduate study in random media. Summarizes random media as bulk properties of ordered and disordered two-phase materials. Gives course outline for one semester. Topics include: disordered systems, microstructure determination, survey of models, connectivity, and effective properties. (MVL)
Descriptors: College Science, Course Content, Course Descriptions, Course Objectives
Peer reviewedBaxter, E. Paul – Studies in Higher Education, 1990
This paper presents the rationale of an innovation, Resource-Based Education, through the chemical engineering department at the University of Queensland (Australia). It describes the program rationale, management processes employed in the project's first five years, and impact on teaching staff. (Author/MLW)
Descriptors: Chemical Engineering, College Instruction, Curriculum Development, Educational Innovation
Todd, Robert H.; Magleby, Spencer P. – European Journal of Engineering Education, 2005
One of the principal objectives of engineering education is to prepare graduates for the practice of engineering in industry. Industry involvement in the educational process can be very helpful in devising programs to meet this objective. Yet, engineering education has a number of other stakeholders including students, faculty, academic…
Descriptors: Engineering Education, Industry, Educational Objectives, Engineering

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