Descriptor
Source
| Engineering Education | 15 |
Author
| Alexander, Robert L. | 1 |
| Bailie, R. C. | 1 |
| Britton, Charles C. | 1 |
| Cook, Allen R. | 1 |
| Cook, E. E. | 1 |
| Defore, Jesse J. | 1 |
| Hunn, Bruce D. | 1 |
| Lovas, Charles M. | 1 |
| Madonna, L. A. | 1 |
| Mathsen, Don V. | 1 |
| Nevill, Gale E., Jr. | 1 |
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Publication Type
| Journal Articles | 1 |
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Nevill, Gale E., Jr.; O'Connor, John A. – Engineering Education, 1972
Describes an experimental design course for engineering and art students based on the concepts of creativity and innovation. Class involvement was encouraged and groups of three people worked best with mixing of engineering and non-engineering students. Students expressed interest and enthusiasm for the course. (DF)
Descriptors: Art, College Science, Creativity, Design
Peressini, Anthony L. – Engineering Education, 1979
To improve mathematics skills of freshmen, the College of Engineering at the University of Illinois at Urbana-Champaign has instituted a mathematics placement test and a summer algebra and trigonometry review program. (BB)
Descriptors: Algebra, College Freshmen, Engineering Education, Higher Education
Britton, Charles C.; Schweizer, Herbert H. – Engineering Education, 1974
Outlines a program designed to combat the high rate of attrition among engineering students. Problems attacked include the unexpected rigor of the curriculum, misconceptions about engineering, isolation from others studying engineering, and inadequate background in math and science. (GS)
Descriptors: College Programs, Engineering Education, Faculty Advisers, Instruction
Engineering Education, 1971
The first part of this two part volume includes articles relating to engineering education. Topics included are personalizing instruction, individualizing instruction, programed instruction, rewarding good teaching, and the use of different approaches to improve teaching. Part II contains descriptive data from 201 engineering colleges concerning:…
Descriptors: College Science, Degree Requirements, Engineering Education, Financial Support
Lovas, Charles M. – Engineering Education, 1975
Describes a program developed by the Educational Research and Methods Division of ASEE for the members at the grassroots level (example, on the campus). Describes the establishment of resource rooms for educators and Mini-ACADEMOS to demonstrate new teaching methods. (GS)
Descriptors: Adult Education, Engineering Education, Inservice Education, Instruction
Hunn, Bruce D. – Engineering Education, 1974
A course relating to energy and the environment and aimed specifically at engineering students is outlined. Course objectives, format, and content are specified; required problem sets, papers, and exams are briefly discussed. (DT)
Descriptors: College Curriculum, Course Descriptions, Curriculum, Energy
Engineering Education, 1975
Papers abstracted represent those submitted to the distribution center at the 83rd American Society for Engineering Education Convention. Abstracts are grouped under headings corresponding to the main topic of the paper. (Editor/CP)
Descriptors: Abstracts, College Science, Conference Reports, Engineering Education
Defore, Jesse J. – Engineering Education, 1974
Presents contemporary thinking on the mathematics requirements in the engineering technology curriculum. Includes a discussion of institutional practices in mathematics instruction pointing out similarities in content, quantity, scope, and nature of mathematical offerings. (GS)
Descriptors: Accreditation (Institutions), College Mathematics, Curriculum, Engineering Education
Mathsen, Don V.; And Others – Engineering Education, 1977
Describes an experimental engineering education program being conducted at the University of North Dakota which integrates freshmen students into upper class activities. Emphasis is on real engineering problems considered to be important. (SL)
Descriptors: College Science, Engineering, Engineering Education, Higher Education
Bailie, R. C.; Wales, C. E. – Engineering Education, 1975
Describes an approach which integrates experiential learning with the study of subject matter. The foundation of this program is a systems design called SAM, Self-Actualized Model. Presents design details of the program and an initial evaluation. (GS)
Descriptors: Curriculum Design, Curriculum Development, Engineering Education, Higher Education
Cook, E. E. – Engineering Education, 1974
Describes a program designed to answer the emotionalism and sensationalism propounded by the broad spectrum ecologist. Courses include the areas of government, agriculture, economics, engineering, and natural resources. (GS)
Descriptors: College Science, Curriculum Development, Engineering Education, Environmental Education
Alexander, Robert L. – Engineering Education, 1975
Presents the belief that the engineering laboratory is well suited to improving student communication skills as well as mathematical, creative, and manipulative skills. Outlines objectives, instructional strategies, and methods of evaluation. (GS)
Descriptors: Communication Skills, Curriculum Development, Engineering Education, Higher Education
Cook, Allen R.; Turkstra, Carl J. – Engineering Education, 1977
Describes a final semester internship engineering course offered at McGill University. Students are placed under the direct supervision of practicing engineers while working on actual engineering projects. (SL)
Descriptors: College Science, Course Descriptions, Engineering, Engineering Education
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
Madonna, L. A. – Engineering Education, 1975
Describes the proposed insertion of two periods of industrial internship (five months beginning the sophomore year and seven months ending the junior year) into a functioning trimester program featuring an integrated curriculum, problem solving laboratories, and a senior engineering project. (GH)
Descriptors: Engineering Education, Experimental Curriculum, Higher Education, Industrial Training


