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Daniel, John S. – Engineering Education, 1974
Explains the components of an open learning system and describes such systems in the United States, Poland, Britain, and France. Enumerates developments in the United States and Canada that may lead to open learning in continuing engineering studies. (GS)
Descriptors: College Science, Correspondence Study, Curriculum, Electronics
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
Rodriguez, F. – Engineering Education, 1974
Descriptors: College Science, Demonstrations (Educational), Engineering Education, Equipment
Wentz, W. H., Jr.; Snyder, M. H., Jr. – Engineering Education, 1974
Describes a course designed to provide each student the opportunity to participate in research. Outlines the objectives formalized in a course hierarchy and presents the mini-project approach used to meet the needs of the students. (GS)
Descriptors: College Science, Course Descriptions, Curriculum Development, Engineering Education
Peer reviewed Peer reviewed
Chemical and Engineering News, 1975
Reports on a National Science Foundation survey of 360 selected graduate departments at doctorate granting schools. Analyzes the 1974 increase in graduate science and engineering students in terms of specific fields, and projects future trends in engineering, the physical sciences, and biology. (GS)
Descriptors: Biology, College Science, Engineering Education, Enrollment Trends
Peer reviewed Peer reviewed
Bajpai, A. C.; Mustoe, L. R. – International Journal of Mathematical Education in Science and Technology, 1974
Objectives of teaching mathematics to engineering and science students are defined, and the role of the computer, especially the interactive terminal, in achieving these objectives is discussed. (SD)
Descriptors: College Mathematics, Computers, Educational Philosophy, Engineering Education
Training Officer, 1975
Descriptors: Civil Engineering, Colleges, Construction Industry, Construction Programs
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
Combs, Robert G. – Engineering Education, 1975
Reports on some objective data and presents some subjective conclusions on the use of self-paced instruction in an experimental electrical engineering course. Outlines some of the problems involved in the development of self-paced materials and identifies several demotivating factors associated with their use. (GS)
Descriptors: Course Descriptions, Course Evaluation, Curriculum Development, Engineering Education
Muller, M. T.; And Others – Engineering Education, 1974
Descriptors: Audiovisual Aids, College Science, Computers, Educational Technology
Grayson, Lawrence P. – Engineering Education, 1974
Describes changing methods in engineering instruction including efforts to: (1) increase opportunities for continuing education, (2) make instruction at all levels more responsive to the needs and abilities of individual students, and (3) educate engineers about the social consequences of their work. (Author/GS)
Descriptors: College Science, Curriculum Development, Educational Technology, Educational Television
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Rasteiro, Maria G.; Bernardo, Fernando P.; Saraiva, Pedro M. – Chemical Engineering Education, 2005
The question addressed here is how to integrate computational tools, namely interactive general-purpose platforms, in the teaching of process units. Mathematica has been selected as a complementary tool to teach distillation processes, with the main objective of leading students to achieve a better understanding of the physical phenomena involved…
Descriptors: Case Studies, Teaching Methods, Units of Study, Science Process Skills
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Haji, Shaker; Erkey, Can – Chemical Engineering Education, 2005
A reaction kinetics experiment for the chemical engineering undergraduate laboratory course was developed in which in-situ Fourier Transfer Infrared spectroscopy was used to measure reactant and product concentrations. The kinetics of the hydrolysis of acetic anhydride was determined by experiments carried out in a batch reactor. The results…
Descriptors: Kinetics, Spectroscopy, Undergraduate Students, Laboratory Experiments
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Rockstraw, David A. – Chemical Engineering Education, 2005
An established methodology involving the sequential presentation of five skills on ASPEN Plus to undergraduate seniors majoring in ChE is presented in this document: (1) specifying unit operations; (2) manipulating physical properties; (3) accessing variables; (4) specifying nonstandard components; and (5) applying advanced features. This…
Descriptors: Chemical Engineering, Teaching Methods, College Seniors, Science Process Skills
Stafford, Horace G. – School Shop, 1975
An activity of a high school drafting program using civil drafting (road construction) as part of the instructional program is described. (BP)
Descriptors: Civil Engineering, Construction (Process), Drafting, Instructional Programs
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