courses are taught by individuals with extensive academic knowledge butrather limited industrial experience. They are theoretical experts but often lack the practicalexposure that is also required to be a successful practicing engineer. Even the assignments,laboratory experiments, and projects reflect this academic slant to their engineering education.Traditionally this is how engineering classes are taught focusing on theoretical solutions tohypothetical problems. The real world engineering perspective is classically absent or minimal atbest from the coursework and curriculum. However, the importance of this real worldengineering experience cannot be overlooked.Two seasoned engineering professors in the Engineering & Design (E&D
. We make the followingobservations from Fig. 1: • Organization was noticeably improved; this could probably be attributed to the fact that all assignments in this sample were laboratory reports were apparently created using standardized guides or templates. • Neither author noted much change in the quality of the content of laboratory reports. This is somewhat surprising, given the expectation that students at this level would be adapting to the idiom of their professional communities of discourse. A possible explanation is that wide discrepancies in participants’ writing samples were noted, and this range of responses was reflected in the overall rating. • Evaluations of mechanics showed problems
traditional teaching laboratory courses with design, build,and test (DBT) activities. In particular, the following principles and methods are adapted: ahands-on experience integrated to abstract concepts discussed in lectures, a clear linkage toindustrial applications, and Design Build and Test (DBT) projects. Specifically, two DBT coursemodules are developed: the heat exchanger and scaled building air-conditioning system. Theproject attempts to improve the relevance of the stand-alone ME lab course to the lecture coursesthrough the execution of DBT activities. This adaptation enhances students’ learning of thermalscience subjects by providing students an enhanced, open-ended design problem experience inthe mid-stage of the curriculum rather than
CurriculumAbstractThe Aerospace Engineering Department at Cal Poly State University, San Luis Obispo, is inthe later phase of a dynamic experiment to revitalize its “hands on” approach toundergraduate engineering education and bring it better in line with evolving accreditationstandards. Part of this plan is to introduce commercially available aircraft manufacturing andfabrication “kits” into its laboratory curriculum. This has been largely accomplished, and thechallenges of the initial phases of this task were presented in a previous publication. Thispaper presents how the lessons learned and resulting innovative learning experiences arebeing integrated throughout the aerospace curriculum with a critical eye towards meetingaccreditation standards. These
interests are laboratory/project-driven learning and integration of research into undergraduate education. Dr. Yao is a member of the American Society of Engineering Education.Loren Limberis, East Carolina University Loren Limberis is an Assistant Professor of Engineering at East Carolina University. Prior to joining ECU, he was a faculty member in the Electrical and Computer Engineering Department at The College of New Jersey. He received both his BS degree in Electrical Engineering and PhD in Bioengineering from the University of Utah. His research interests include the study of motor protein motility mechanisms and the incorporation of motor proteins and their associated tracks into bio
AC 2007-519: SITE ANALYSIS AND ENVIRONMENTAL RESTORATIONAdrian Miron, University of Cincinnati Dr. Adrian Miron received his B.S. and M.S. in Applied Physics from University of Bucharest and his M.S. and Ph.D. in Nuclear Engineering from University of Cincinnati (UC). He is a research professor within the Mechanical, Industrial and Nuclear Engineering Department at UC, where he has developed and taught graduate core courses and has conducted research on various nuclear and radiological engineering topics. Previously, Dr. Miron worked at Argonne National Laboratory in the Diagnostic and Control Group within the Nuclear Engineering Division, and collaborated closely with the RESRAD team within
theengineering field, is a key factor in the advancement of this discipline. CIM laboratory stronglysupports manufacturing engineering curriculum to fulfill some of the ABET requirements forcriteria: (b) an ability to design and conduct experiments, as well as to analyze and interpret data,(c) an ability to design a system, component, or process to meet desired needs, (k) an ability touse the techniques, skills, and modern engineering tools necessary for engineering practice.Some key components of CIM and hierarchy of operation in a manufacturing facility are studiedand correlated. They include CAD-CAM link, numerical control, automation, production andmanufacturing control, control through proper communication and computer supervisory control,robotics
AC 2007-1675: ENHANCING ENGINEERING EDUCATION WITH WEB-BASEDINSTRUMENTATION DESIGN PROJECTSMatthew Heun, Calvin College Matthew K. Heun received his Ph.D. in Mechanical and Industrial Engineering from the University of Illinois at Urbana-Champaign. He was a staff engineer at the Jet Propulsion Laboratory in Pasadena, California and a Senior Engineer at Global Aerospace Corporation in Altadena, California before joining the Engineering Department at Calvin College in Grand Rapids, Michigan. Page 12.667.1© American Society for Engineering Education, 2007 Enhancing Engineering Education with
andoptimization. The undergraduate course work within the manufacturing curriculum at NorthCarolina A&T State University focuses on hands-on laboratory machine-tool instruction,computer aided design & manufacturing and systems levels production control. Specifically, weoffer three sequential manufacturing courses namely; INEN 246: Industrial ProductionProcesses, INEN 324: Computer Aided Design and Manufacturing, INEN 446: Automation andProduction Systems. In addition, students interested in manufacturing specialization chose atechnical elective INEN 632: Robotics Systems and Applications towards their BS degree. TheINEN 246: Industrial Production Processes course covers traditional manufacturing processesincluding metal casting, forming, material
developing required HEV specific courses; (3) Creating an HEV specialized laboratory; (4)Developing a two-day short course on HEV technology available for distance learning; (5)Developing and delivering seminars and workshops for different groups of audiences, includingK-12 teachers, (6) Creating internship and co-op opportunities, plant visits, and an expert lecturerseries; (7) Initiating a pilot program for Automotive Service Excellence (ASE) certification inhybrid vehicles; and (7) Providing transfer student advising by university faculty.The project activities, including the development of the HEV curriculum, the two-day shortcourses, the symposium and workshops, will be presented. The lesson learned through thecollege-university partnership
the Milwaukee School of Engineering (MSOE). He is a former Member of Technical Staff at AT&T Bell Laboratories and received his Ph.D. degrees from the University of Pennsylvania in 1971. His technical work covers the topics of Optical Data Links, Integrated Circuit Technology, RF semiconductor components, and semiconductor component reliable. He is a Senior Member of the IEEE and an ABET EAC program evaluator in Electrical Engineering. Page 12.1143.1© American Society for Engineering Education, 2007 Panel Session – International Division “Educating Graduates
the Milwaukee School of Engineering (MSOE). He is a former Member of Technical Staff at AT&T Bell Laboratories and received his Ph.D. degrees from the University of Pennsylvania in 1971. His technical work covers the topics of Optical Data Links, Integrated Circuit Technology, RF semiconductor components, and semiconductor component reliable. He is a Senior Member of the IEEE and an ABET EAC program evaluator in Electrical Engineering. Page 12.1144.1© American Society for Engineering Education, 2007 Panel Session – International Division “Educating Graduates
the Milwaukee School of Engineering (MSOE). He is a former Member of Technical Staff at AT&T Bell Laboratories and received his Ph.D. degrees from the University of Pennsylvania in 1971. His technical work covers the topics of Optical Data Links, Integrated Circuit Technology, RF semiconductor components, and semiconductor component reliable. He is a Senior Member of the IEEE and an ABET EAC program evaluator in Electrical Engineering. Page 12.1145.1© American Society for Engineering Education, 2007 Panel Session – International Division “Educating Graduates
less compartmentalization of knowledge,greater student enthusiasm, and deeper learning of concepts. Integration of MENG 351 occursacross a number of courses, including Systems Laboratory, Mechanics of Materials, MachineDesign, Thermodynamics, and others.Projects were carefully chosen to achieve the learning objectives of MENG 351 and to interfacewith future courses in the inductive learning process. The shop portion of MENG 351 is aimedat developing skills in woodworking, manual machining, and sheetmetal fabrication. In a latercourse (Manufacturing Processes), students develop CNC and welding skills. Students workedin teams of 2 for almost all projects. In the shop, this buddy-system arrangement helped ensurestudents were attentive to each
the Milwaukee School of Engineering (MSOE). He is a former Member of Technical Staff at AT&T Bell Laboratories and received his Ph.D. degrees from the University of Pennsylvania in 1971. His technical work covers the topics of Optical Data Links, Integrated Circuit Technology, RF semiconductor components, and semiconductor component reliable. He is a Senior Member of the IEEE and an ABET EAC program evaluator in Electrical Engineering. Page 12.1142.1© American Society for Engineering Education, 2007 Panel Session – International Division “Educating Graduates
writer, and device design, modeling and test laboratories. The program enjoys astrong support from the semiconductor industry through the industrial affiliate program.Industry support has been extremely valuable, perhaps one of the most critical factors forsustaining this program. The curriculum combines subjects such as semiconductor devicephysics, circuits and electronics, microlithography, integrated circuit (IC) processing and thinfilm processes2.The program has several courses from second through fifth year that include important materialsscience and engineering content. These are • Solid crystalline structures • Oxidation • Diffusion • Ion Implantation • Physical Vapor Deposition • Chemical Vapor Deposition
training programs (Figure 1). A state-of-the-art bioinformatics laboratory will also be established to support the components of thecurriculum. Course-embedded Modules Bioinformatics Lab for Curriculum Support Bioinformatics Training Courses WorkshopsFigure 1: Diagrammatic representation of three-pronged approach for establishing Bioinformatics curriculum at FVSU.Bioinformatics courseA three-credit-hour junior level
, Page 12.1166.2and structural joints. The theory is reinforced in the materials laboratory where they manufactureand test several hands-on projects using manual and CNC mills and lathes, and test equipment.During their freshmen year, students take AT108 and AT166, which are prerequisites for AT308,and are taught sheet metal fabrication and repair, corrosion, heat treatment, aerospace materials,welding, and painting. The topics of AT108 and AT166 are geared towards the FAR Part 147curriculum. Students enrolling in AT308 have developed basic aircraft materials skills, but all ofthem still have a lot to learn about structural joint design, the use of CNC equipment, and qualitycontrol systems like ISO 9000. American universities, in general, are
that of the average college course. Reading assignments frequently requirescrutiny of detailed example problems. To encourage deeper levels of understanding as outlinedin Bloom’s taxonomy4, considerable emphasis is usually placed on active learning in the form ofproblem sets, laboratories, and design projects.On end-of-semester course evaluations, ET students at the authors’ institution frequently rate thetime commitment to their ET courses as considerably above average. Students direct commentsto instructors indicating that they perceive their course work loads to be heavy. At the sametime, instructor observations suggest that some students make inefficient use of their out-of-classtime. This study was initiated to accomplish two primary
AC 2007-2815: EFFECTIVE INSTRUCTION OF AN ONLINE ENGINEERINGCOURSERonald Uhlig, National University Dr. Ronald P. Uhlig is currently an Associate Professor in the Applied Engineering Department, School of Engineering and Technology, National University. He is the Lead Faculty for Wireless Communications, with overall responsibility for the Master of Science in Wireless Communications program. In addition, he is leading the effort to establish a multidisciplinary Educational Technology Laboratory, joint between National University and Project Inkwell (www.projectinkwell.com) He is also a member of the Steering Committee for Project Inkwell. Prior to joining the National University faculty, he
transplanted middle westerner, having spent her childhood in Norfolk, Virginia. She came to Rose-Hulman early in her teaching career and has taught a wide variety of courses over the past three decades. Pat has held a number of American Society for Engineering Education summer fellowships that have taken her to NASA-Goddard, NASA-Langley, the Army Research Laboratory in Aberdeen, Maryland, and NASA’s Classroom of the Future in Wheeling, WV. She was on loan to the Air Force Human Resources Laboratory from 1989 to 1995, managing a project to transition advanced instructional technologies to ten different middle schools located in five states. She is on the editorial board of three
growing global environmental concerns overtheir use for the generation of electric power have increased the interest in the utilizationof renewable energy. This also raises the needs for engineering and sciences programs toprovide training in the areas of renewable energy technology. New programs, courses andsupport laboratories need to be developed and implemented. This paper describes thedevelopment of a design module that forms part of a project-based course in solar-windenergy systems taught at one of the author’s former institution during the Winter 2006term. Course materials were developed during the summer 2005 and fall 2006. Thismodule, which is part of the course-support laboratory, consists of a decision supportsoftware application used
Bell Laboratories, General Motors Laboratories, NASA Goddard Space Flight Center, and SPAWAR Systems Center. Page 12.582.1© American Society for Engineering Education, 2007 Effective “Writing to Communicate” Experiences in Electrical Engineering CoursesAbstractTo help develop essential communication skills that engineering graduates need, engineeringfaculty must find ways to incorporate writing into the curriculum. There have been reports ofimpressive work integrating writing centers or technical communication professionals withengineering courses. However, most engineering programs do not
projects, progressing through an on-site industrial CO-OP and culminating with a team Senior Project or Masters Thesis.Problem-Based Learning within a Multidisciplinary, Industrial Project-Based ContextCalifornia Polytechnic State University has an earned reputation as a proponent of the hands-on,laboratory-based, learn-by-doing approach to education. We have also won a reputation as acollege whose students are steeped in open-ended problems and underpinned by anunderstanding of design and the process of design. As part of our newly-created Biomedical &General Engineering Department, it was our goal to implement Problem Based Learning (PBL)within a larger, industry project-based context. Based on our experience with industry as a keypartner in
to acontinued funding commitment which can survive the departure of any critical individual oneither side of the partnership.MEDITEC (Medical Engineering Development and Integrated Technology EnhancementConsortium) is an industry/academic partnership that matches multidisciplinary teams ofundergraduate and masters-level engineering students with the project needs of biomedicaldevice developers. Industry provides the project topics and technical mentors, while projects areself-selected by students based upon a match with their background skills and educational goals.Reconfigurable project space, with physical isolation between the confidential projects ofcompeting companies, is provided on campus. This physical laboratory serves as the focus
AC 2007-154: PROJECT REJUVENATION: A TIME-TESTED 1ST YEARMACHINE TOOL PROJECTHarvey Svec, South Dakota State UniversityHarriet Svec, South Dakota State University Dr. Harriet Svec has a background in Curriculum and Instruction and assisted with the curriculum rejuvenation of the project. Page 12.1204.1© American Society for Engineering Education, 2007 Project Rejuvenation: A time tested 1st year machine tool projectAbstractAn engineering prerequisite course for Mechanical and Manufacturing Engineers has stood thetest of time as it has changed with technology. The course laboratory project was originallydesigned
project laboratories, inside and outside of the facultymember’s discipline. For example, the electrical engineering faculty member wouldsupervise a lab on structural engineering. While these labs were at a basic level, somefaculty were uncomfortable teaching outside of their field. Faculty further observe thatstudents and faculty are pleased with the more intense experience in engineering designwithin a major field during the first semester. Contact-hours between individual facultyand students are greater in the seminar-version, allowing faculty the chance to closelyinteract with and get to know 60-90 members of the first-year class. The main downsidefor faculty in the seminar-course is the increased grading burden relative to the singlecourse
authored more than 25 refereed journal and conference publications. From 2003 through 2006, he was involved with Argonne National Laboratory, Argonne, IL in developing direct computer control for hydrogen powered automotives. He is also involved in several direct computer control and wireless process control related research projects. His interests are in the area of industrial transducer, industrial process control, wireless controls, statistical process control, computer aided design and fabrication of printed circuit board, programmable logic controllers, programmable logic devices and renewable energy related projects.Masoud Fathizadeh, Purdue University-Calumet Masoud Fathizadeh received his B.S.E.E
. These efforts have led to the emergence of nanotechnology dealing with a widerange of engineering applications at the nano scale. Nanotechnology has future impacts in theapplication markets such as medicine, healthcare, biotechnology, communications, andelectronics. Due to rapid development and broad impact of nanotechnology, education andtraining of a new generation of workforce skilled in this field will play an important role in thedevelopment and applications of nanotechnology. It is a challenge for educators, especially forengineering technology educators, to provide an appropriate curriculum and effective learningenvironment including state-of-the-art laboratories for students who want to enter the nano fieldafter their graduation. This
AC 2007-321: CLASSROOM STUDIES IN POWER FLOW AND TRANSMISSIONLINES BY MEANS OF PSCAD/EMTDCFanourios Chalkiadakis, California State Polytechnic University-Pomona FANOURIOS (FANIS) CHALKIADAKIS received his Ph.D. degree in Engineering Science in 2001, from Southern Illinois University at Carbondale. He is currently an Associate Professor and Power Systems chair at the Dept. of Electrical and Computer Engineering, California State Polytechnic University, Pomona, and holds memberships in the IEEE, IEEE Power Society and ASEE. His interests include power systems, renewable sources of energy, modeling, circuit theory, microcontrollers, analog electronics, and laboratory development