A New Model For Integrating Engineering Into the Liberal Education of Non?Engineering Undergraduate Students
Ettouney O.M.
1994
Journal of Engineering Education
13
10.1002/j.2168-9830.1994.tb00130.x
In this paper, I will discuss a new model that integrates engineering into the liberal education of all undergraduate students, regardless of their majors. The model was proposed in 1992 by the Manufacturing Engineering Department at Miami University and was approved as part of a new plan for liberal education for all students. The objective of the model is to provide students with an opportunity to learn about the engineering profession and design, including its links to technology and society. To achieve this objective, the new model includes: a 3 credit hour course, with lab, to learn about engineering and technology and their impact on society; a 3 course, 9 credit hour sequence to study, in?depth, engineering methods and modeling; and a 3–4 credit hour, two?course, senior capstone. The implementation of the model started in the Fall of 1993. A mechanism has been developed for assessing this model and its impact on students' learning and understanding of engineering, the classroom?learning environment, and its ability to attract and retain women and minorities to engineering. 1994 American Society for Engineering Education
(1987); Valkenburg M.V., “Turning Off Students: Our Gatekeeper Courses,”, Engineering Education, 80, 6, (1990); Hewitt N.M., Seymour E., pp. 22-28, (1992); Sheahan B.H., White J.A., “Quo Vadis, Undergraduate Engineering Education, Engineering Ed., 80, 8, pp. 1017-1022, (1990); Beaufait F.W., “An Engineering Curriculum For the Year 2000,”, Engineering Education, 81, 4, pp. 425-428, (1991); Goldman S.L., (1987); Florman S.C., The Existential Pleasures of Engineering, (1976); Mark H., Carver L., (1988); Snow C.P., The Two Cultures and the Scientific Revolution, (1959); Goldman S.L., Cutcliffe S.H., “STS, Technology Literacy, and the Arts Curriculum,”, Bulletin of Science, Technology & Society, 2, pp. 291-307, (1982); Meade J., pp. 19-22, (1991); Pacey A., The Culture of Technology, pp. 1-12, (1992); Ivey E.S., “Recruiting More Women Into Engineering and Science,”, Engineering Education, 78, 8, pp. 762-765, (1988); Jones C., pp. 24-26, (1992); Owen J.V., “Women in Manufacturing: Engineering Change,”, Manufacturing Engineering, 110, 3, pp. 42-49, (1993); Noble D.F., “A World Without Women,”, Technology Review, 95, 4, pp. 53-61, (1992); Cockburn C., “Caught in the Wheels: The High Cost of Being a Female in Male Machinery of Engineering,”, The Social Shaping of Technology, pp. 55-56, (1990); Claxon C.S., Murrel P.H., (1987); (1992); Hutchings P., (1990); Jacobi M., Astin A., Ayala F., (1987); Davis W., Esposito A., Ettouney O.M., “Course Syllabus: Perspectives on Technology,”, Curriculum Newsletter of the Lehigh University STS Program, 69, pp. 13-17, (1988); Burghardt M.D., Introduction to the Engineering Profession, (1991); Walton J.W., Engineering Design From Art to Practice, (1991); Beer F.P., Johnston E.R., Vector Mechanics for Engineers: Statics and Dynamics, (1988); Earle J.H., Engineering Design Graphics, (1987); Truxel J.G., (1989); Katz J., “Learning to Help Students Learn,”, Liberal Education, 73, 4, pp. 28-30, (1987); Harb J.N., Durrant S.O., Terry R.E., “Use of the Kolb Learning Cycle and the 4MAT System in the Engineering Education,”, Journal of Engineering Education, 82, 2, pp. 70-77; Truxel J.G., pp. 164-170, (1987); Brinko K.T., “Visioning Your Course: Questions to Ask as You Design Your Course,”, Teaching Professor, 4, 10, pp. 3-4, (1990)
Article
Scopus