Ranks highest subject training needs for professional careers in industry as identified by respondents in the engineering profession. A competency inventory of a professional engineering program is proposed and discussed. (CS)

Discusses the need to teach practical engineering particulary through close ties between industry and universities. (SL)

Discussed are means of enhancing engineering education and the process of bridging the gap between industry and academe. The change in the corporate culture is described. Partnerships between schools and industry are advocated. (CW)

Describes several National Science Foundation programs which encourage interaction between industries and universities. They include engineering research centers, Presidential Young Investigator Awards, and programs in the Industrial Science and Technology Innovation Division. Indicates that industry's pressing need for solutions often adds…

Although fundamentally different purposes may cause clashes when universities and industry embark on joint research and development ventures, careful planning can often bridge this gap. Areas addressed include university/industry cooperation, information exchange, intellectual property, and conflicts with colleagues/students. (DH)

Contrasted are industrial research and university research. Highlights include a description of the role of research in industry, as in new product development; an examination of positive and negative effects of research on engineering faculty selection and advancement; and a discussion of industry's expectations of new graduates as able…

Outlines university research policies, criteria for acceptability of research programs, and objectives achievable through research. Presents the role of the federal government and industry in supporting research and describes problems that arise in university-industry cooperative research. (GS)

Discusses the desirability of having engineering students and teachers practice with industry, government, and individuals in private practice in order to increase technology transfer. (SL)

States that an expanding future in space requires new technology. Stresses that from engineering education, space requires people with a fundamental knowledge of modern science instruments, all engineering sciences, an appreciation and capability for detail and systems design, and an understanding of costs and competitiveness, machines, materials,…

Compares the educational system of the United States/Japan, looking at total time spent in mathematics and science preparation (as well as other subject areas) and out-of-school activities. Examines the structure of higher education in Japan and the origin of the Japanese university, as well as engineering education in the two countries. (JM)

Lists articles and books published in 1987. Selects the following headings: administration, aeronautical, architectural, CAD/CAM, civil, computers, curriculum, electrical/electronics, industrial, industry/government/employers, instructional technology, laboratories, liberal studies, manufacturing, mechanical, minorities, research, robotics,…

Examines whether or not university-based research can produce and support personnel needed to maintain technological leadership. Suggests that industry become more involved by increasing the number of research positions available for graduates and describes one program involving university-industry cooperation. (Author/SK)