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Ang, Keng-Cheng – International Journal of Mathematical Education in Science and Technology, 2008
The boundary element method provides an excellent platform for learning and teaching a computational method for solving problems in physical and engineering science. However, it is often left out in many undergraduate courses as its implementation is deemed to be difficult. This is partly due to the perception that coding the method requires…
Descriptors: Engineering Education, Computer Uses in Education, Computer Software, Computation
Shacham, Mordechai; Brauner, Neima; Ashurst, W. Robert; Cutlip, Michael B. – Chemical Engineering Education, 2008
Mathematical software packages such as Polymath, MATLAB, and Mathcad are currently widely used for engineering problem solving. Applications of several of these packages to typical chemical engineering problems have been demonstrated by Cutlip, et al. The main characteristic of these packages is that they provide a "problem-solving environment…
Descriptors: Mathematical Models, Computer Software, Problem Solving, Chemical Engineering
Miller, Lavonna; Draeger, Meg; Bowermeister, Bob; Wancho, Richard – 2002
This document, which lists engineering technologies competencies as identified by representatives from business and industry as well as secondary and post-secondary educators throughout Ohio, is intended to assist individuals and organizations in developing college tech prep programs that will prepare students from secondary through post-secondary…
Descriptors: Associate Degrees, Competency Based Education, Employment Potential, Employment Qualifications
Mitchell, Eugene E., Ed. – COED Transactions, 1980
A problem is presented that teaches the engineering student or practicing engineer the behavior of Hooke's joint, a widely used mechanism for transmitting rotary power in mechanical equipment. Also provided by this problem is an exercise in analog programing which utilizes nonlinear computer elements. (Author/CS)
Descriptors: Analog Computers, College Science, Engineering, Engineering Education
Peer reviewedBeveridge, G. S. C.; Mathews, T. – Assessment and Evaluation in Higher Education, 1986
The use of case studies for training in problem solving in a Scottish chemical engineering program is outlined, and problems in assessing both changes in student behavior and the quality of the learning experience are examined. (MSE)
Descriptors: Case Studies, Chemical Engineering, Classroom Techniques, Engineering Education
Eide, Arvid R.; Jenison, Roland D. – Engineering Education, 1984
Describes a separate engineering administrative unit established to meet the needs of lower-division students. Need for the unit, courses that make up the basic program of instruction, advising, academic assistance, and advantages and disadvantages to the engineering college are discussed along with concerns and problems that have arisen. (BC)
Descriptors: Academic Advising, Computer Graphics, Course Descriptions, Departments
Peer reviewedWoods, Donald R. – Chemical Engineering Education, 1983
Describes a graduate or senior elective course combining fundamentals of surface phenomena with practical problem-solving structured around a series of case problems. Discusses topics covered and their development through acquiring new knowledge applied to the case problem, practical calculations of solutions, and applications to additional…
Descriptors: Chemical Engineering, Course Content, Course Descriptions, Engineering Education
Ahl, David H. – Creative Computing Software Buyer's Guide, 1983
"TK!Solver" was designed as a personal computing tool to solve problems involving mathematical calculations and analysis. An in-depth review of this model building and problem-solving package is provided. System commands, applications (including data lists, plots/graphs, iterative problem-solving, present values), and other areas are…
Descriptors: Architecture, Business, Computer Programs, Engineering
Peer reviewedOke, K. H.; Jones, A. L. – Physics Education, 1982
Mathematical modelling and an example used with undergraduates were presented in part 1 (v17, n5, p212-18, 1982). A second example, Power from Windmills, is provided which has considerable potential for development both as a model and as a series of modelling experiences of increasing difficulty for students with different backgrounds. (Author/JN)
Descriptors: College Science, Engineering, Engineering Education, Higher Education
Peer reviewedOke, K. H.; Jones, A. L. – Physics Education, 1982
Describes the heating of a baby's milk bottle (an exercise in modelling) and the interaction between lecturer and students as they formulate the problem, produce a tentative solution and interpret the solution. (Author/JN)
Descriptors: College Science, Engineering, Engineering Education, Higher Education
Peer reviewedLochhead, Jack; Collura, John – Physics Teacher, 1981
Discusses laboratory investigations designed to allow students to solve problems without using predetermined mathematical formulas. As a result, laboratory problems force students to think. In addition, some students formulate their own mathematical relationships and enhance their understanding of the connection between mathematics and…
Descriptors: College Science, Engineering, Engineering Education, Higher Education
Narum, Jeanne – Liberal Education, 2008
Are new approaches to transforming undergraduate learning in science, technology, engineering, and mathematics (STEM) making a difference? If so, how? How do people know? And what next? These are the questions explored in a 1999 report from Project Kaleidoscope, which concluded by making predictions and recommendations for the coming decade. Now…
Descriptors: Prediction, Engineering Education, Mathematics Education, Technology Education
Marcovitz, Alan B., Ed. – 1977
This document provides a computer program which produces a graphical determination of admissible solutions for engineering problems relating to the design of prestressed concrete beams. Included is a generalized section for describing beam sections. (Author/SL)
Descriptors: College Science, Computer Programs, Engineering, Engineering Education
Nishimura, Toshio; Maekawa, Yoshihiro – Technological Horizons in Education, 1984
In the 20 years since the first computers were installed in Japan, roles of systems engineers have changed. As a result, two leading educators developed a new method which has been successfully used for eight years. The development and use of method for solving engineering systems design problems is described. (JN)
Descriptors: Computer Oriented Programs, Design, Engineering, Engineering Education
Peer reviewedDorey, A. P. – Physics Education, 1983
Draws comparisons between the development of physics courses and the approach required to solve an engineering problem. Some major strands in the development of A-level physics and related subjects are discussed to illustrate/illuminate compromises necessary to resolve tensions that exist (such as between pure/applied approaches to physics…
Descriptors: Curriculum Development, Engineering, Engineering Education, Foreign Countries

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