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Engineering Education | 56 |
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Heggen, Richard J. – Engineering Education, 1988
Reports on a survey of the undergraduate programs of 50 engineering schools which was designed to investigate the engineering curriculum with regard to core courses in statics and dynamics. Indicates that only about one-third of the schools require these courses. Argues for their return to the programs. (TW)
Descriptors: College Science, Engineering Education, Higher Education, National Surveys
Miller, Gerald E.; Hyman, William A. – Engineering Education, 1981
Describes the status of fluid mechanics courses in bioengineering curricula. A survey of institutions offering bioengineering degrees indicates that over half do not require fluid mechanics courses. Suggests increasing number of mechanics courses to increase the quality of bioengineering students and to prepare students for graduate work and more…
Descriptors: Biomechanics, College Science, Engineering Education, Fluid Mechanics
Gourley, Frank A., Jr. – Engineering Education, 1990
Reports the results of a survey of graduates, employers, and instructors of engineering technology programs for the essential topics in mechanical engineering technology, mechanical drafting/design technology, manufacturing engineering technology, and industrial engineering technology. Identifies the proficiency level suggested for classwork and…
Descriptors: College Science, Course Content, Course Objectives, Engineering Education
Engineering Education, 1989
Summarizes the report of the Massachusetts Institute of Technology Commission on industrial productivity, "Made in America: Regaining the Productive Edge." Provides six comments on the report's implications of the role of engineering education. (YP)
Descriptors: College Science, Educational Change, Engineering, Engineering Education
Cook, Echol E. – Engineering Education, 1978
Describes a study to determine the curriculum which will prepare an engineer to enter the field of environmental engineering, based on input from engineers working in the field. (SL)
Descriptors: College Science, Conservation (Environment), Curriculum, Engineering
Feisel, Lyle D.; And Others – Engineering Education, 1981
Describes an autoremediation (self-remediation) system designed to allow students to diagnose their individual prerequisite deficiencies and then correct them. The system consists of a curriculum diagram, set of diagnostic tests, and a set of slide-tape self-instruction modules. Includes summary of evaluative efforts. (SK)
Descriptors: Autoinstructional Aids, College Science, Engineering Education, Higher Education
Lin, Herbert – Engineering Education, 1979
Cautions physics instructors to be aware of the "hidden curriculum" or what it is that causes students to study more for a grade than for mastery learning. The problem of the hidden curriculum is also discussed as it applies to the personalized system of instruction. (SA)
Descriptors: College Science, Higher Education, Individualized Instruction, Physics
Van Valkenburg, Mac – Engineering Education, 1989
Discusses recent approach at undergraduate engineering curriculum emphasizing bringing some engineering courses to freshman and sophomore levels. Summarizes several examples of the approach at various institutions throughout the country. (YP)
Descriptors: College Science, Computer Assisted Instruction, Curriculum Development, Engineering
Defore, Jesse J. – Engineering Education, 1975
Reports that fewer than half of over one hundred engineering technology curricula surveyed included chemistry as a requirement. Qualitatively describes the content of courses surveyed. Argues for the inclusion of chemistry in all curricula. (GH)
Descriptors: Associate Degrees, Chemistry, College Science, Curriculum
Starr, Patrick J. – Engineering Education, 1977
Describes a course addressing the social consequence of engineering work and the contributions of technology to societal problems. (SL)
Descriptors: College Science, Course Descriptions, Engineering Education, Higher Education
Newton, T. G.; Scholz, P. D. – Engineering Education, 1987
Describes a program at the University of Iowa which introduces undergraduate engineering students to the rewards and responsibilities of teaching engineering through cooperative education positions as faculty assistants in introductory engineering courses. (TW)
Descriptors: College Science, Cooperative Education, Engineering Education, Higher Education
Red, W. E. – Engineering Education, 1981
Describes a course module designed to instruct beginning engineering students at the University of New Mexico in problem-solving methodology as suggested by Polya (understand, plan, carry out, look back). (SK)
Descriptors: Abstract Reasoning, College Science, Course Descriptions, Curriculum Development
Lancaster, Otis E. – Engineering Education, 1978
Discusses reasons and need for experimental laboratories in engineering education. (SL)
Descriptors: College Science, Engineering, Engineering Education, Higher Education
Christensen, Julien M. – Engineering Education, 1977
Discusses the growing need for the inclusion of engineering liability into engineering education programs. (SL)
Descriptors: College Science, Course Content, Course Descriptions, Engineering Education
Vonalt, Larry; And Others – Engineering Education, 1980
Describes a course offered for the freshman civil engineering major at the University of Missouri-Rolla. The rationale of developing the course which focuses on the symbolic, social, and technological aspects of the Mississippi River is included. (HM)
Descriptors: College English, College Students, Course Descriptions, Curriculum Development