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Dahle, Reena; Rasel, Rafiul – IEEE Transactions on Education, 2016
This paper presents a series of course modules developed as a high-impact and cost-effective learning tool for modeling and simulating the microfabrication process and design of microelectromechanical systems (MEMS) devices using three-dimensional (3-D) printing. Microfabrication technology is an established fabrication technique for small and…
Descriptors: Educational Technology, Learning Modules, Electromechanical Technology, Printing
Jensen, Bogi B.; Abrahamsen, Asger B.; Sorensen, Mads P.; Hansen, Jorn B. – Online Submission, 2013
In this paper, a course on applied superconductivity is described. The course structure is outlined and the learning objectives and the learning activities are described. The teaching was multidisciplinary given by four departments each contributing with their expertise. Being applied superconductivity, the focus was on an application, which could…
Descriptors: Foreign Countries, Teaching Methods, Curriculum Development, Class Activities
Grundbacher, R.; Hoetzel, J. E.; Hierold, C. – IEEE Transactions on Education, 2009
A microelectro-mechanical systems (MEMS) laboratory course (MEMSlab) in the Mechanical and Process Engineering Department at the Swiss Federal Institute of Technology (ETH Zurich), is presented. The course has been taught for four years and has been attended primarily by Master's students from mechanical and electrical engineering; since fall…
Descriptors: Teaching Methods, Foreign Countries, Graduate Study, Engineering Education
Enikov, E. T.; Campa, G. – IEEE Transactions on Education, 2012
This paper presents a low-cost hands-on experiment for a classical undergraduate controls course for non-electrical engineering majors. The setup consists of a small dc electrical motor attached to one of the ends of a light rod. The motor drives a 2-in propeller and allows the rod to swing. Angular position is measured by a potentiometer attached…
Descriptors: Computer Assisted Instruction, Synchronous Communication, Programming, Computer Science Education
Chandra A. P., Jagadeesh; Samuel, R. D. Sudhaker – International Journal of Distance Education Technologies, 2010
Attaining excellence in technical education is a worthy challenge to any life goal. Distance learning opportunities make these goals easier to reach with added quality. Distance learning in engineering education is possible only through successful implementations of remote laboratories in a learning-by-doing environment. This paper presents one…
Descriptors: Electronic Learning, Engineering Education, Distance Education, Technical Education
Dallas, T.; Berg, J. M.; Gale, R. O. – IEEE Transactions on Education, 2012
This paper describes the goals, pedagogical system, and educational outcomes of a three-semester curriculum in microelectromechanical systems (MEMS). The sequence takes engineering students with no formal MEMS training and gives them the skills to participate in cutting-edge MEMS research and development. The evolution of the curriculum from…
Descriptors: Outcomes of Education, Competition, Curriculum Development, Manufacturing
Bauer, P.; Rompelman, O. – European Journal of Engineering Education, 2005
Present engineering has to deal with increasingly complex systems. In particular, this is the case in electrical engineering. Though this is obvious in microelectronics, also in the field of power systems engineers have to design, operate and maintain highly complex systems such as power grids, energy converters and electrical drives. This is…
Descriptors: Animation, Engineering Education, Engineering, Engineering Technology

Arkun, Yaman; And Others – Chemical Engineering Education, 1988
Describes a graduate engineering course which specializes in model predictive control. Lists course outline and scope. Discusses some specific topics and teaching methods. Suggests final projects for the students. (MVL)
Descriptors: Automation, Chemistry, College Science, Course Content

Deshpande, Pradeep B. – Chemical Engineering Education, 1988
Describes an engineering course for graduate study in process control. Lists four major topics: interaction analysis, multiloop controller design, decoupling, and multivariable control strategies. Suggests a course outline and gives information about each topic. (MVL)
Descriptors: Automation, College Science, Course Content, Course Descriptions