Page 8.330.6 “Proceedings of the American Society for Engineering education Annual Conference & Exposition Copyright 2003, American Society for Engineering Education” 6HYUN W. KIMHyun W. Kim is a Professor of Mechanical Engineering and Chair of the Department of Mechanical and IndustrialEngineering at Youngstown State University. He has been teaching and developing the Thermal FluidApplications course and the companion laboratory course for the past few years. He is a registered ProfessionalEngineer in Ohio and is currently conducting applied research in hydraulics and micro gas turbines. He helps thelocal industry and engineers with his expertise in heat
Session 2209 Laboratory Courses Focused on Tissue Engineering Applications Ann Saterbak Department of Bioengineering, Rice University, Houston TX 77005AbstractTwo new laboratory courses focused on tissue engineering have been developed andimplemented in the undergraduate Bioengineering Department at Rice University. The contentof these courses is quite unique, yet fully supports the department’s emphasis on biomedicalengineering at the molecular, cellular, and tissue levels. This sequence of required laboratorycourses is designed to teach students mammalian tissue culture techniques, to
. Page 22.820.1 c American Society for Engineering Education, 2011 Implementing Peer-Reviews in Civil Engineering LaboratoriesAbstractABET 2009-10 criterion 3 requires that all engineering graduates demonstrate an ability tocommunicate effectively at the time of graduation (criterion g of a-k outcomes). Technicalcommunication is a critical skill for Civil Engineering students to achieve. However,incorporating technical writing in many engineering courses is difficult. At Seattle University,laboratory reports are used to teach technical writing skills. Unfortunately, students often preparetheir reports at the last minute, rather than devoting the time necessary to compose and edit theirwriting. When the
, fight it, orembrace it. Ignoring the problem will only degrade the integrity of the class. Fighting ithas proven extremely difficult as the RIAA (Recording Industry Association of America)and MPAA (Motion Picture Association of America) have found. The best option is toembrace it and change the way classrooms operate while at the same time teaching betterengineering ethics for the Internet age. This paper focuses on the changes made toembrace these trends in a computer engineering laboratory at Mississippi StateUniversity.2. Background At Mississippi State University, the computer engineering curriculum consists ofa sequence of five classes: Digital Devices, Microprocessors, Digital Systems Design,Computer Architecture, and Embedded
Laboratory Experiments for Introductory and Advanced VLSI Courses Hui Geng, Daryl G. Beetner and Yiyu Shi Electrical and Computer Engineering Department of Missouri University of Science and TechnologyAbstractThis paper focuses on the experimental design of large scale integrated circuits (LSICs) bysenior and graduate level students at Missouri University of Science and Technology. Wehave designed a series of experiments to teach fundamentals of full-custom IC design, whichinclude front-end to back-end flow. These labs help IC beginners understand the entirefull-custom design process. Labs are executed in both an undergraduate and advancedgraduate course. The lab experience includes
ProceedingsEducational objectives To get the real benefit from this facility, we feel it is necessary to rethink the waywe teach undergraduate electronics laboratories to emphasize the ties between design andfabrication and to develop modular electronic projects that build on each other in anappropriate manner. A previous paper discusses how our Junior level electronics classesmake use of this EPF as part of our standard electronics laboratory instruction.[8]Our specific educational objectives include the following: (1) To familiarize the students with the manufacturing process for printed circuit boards and have them learn industry-standard software design tools used in the design and production of electronic systems (2) To revitalize
Session 1626 Implementing A Sophomore-Level Materials, Manufacturing & Design Laboratory Edmund Tsang and Andrew Wilhelm Mechanical Engineering Department, University of South Alabama, Mobile, Alabama 36688ABSTRACT A one-credit hour, sophomore-level laboratory course was implemented in Fall Quarter, 1995 tointegrate materials, manufacturing and design. The course meets once a week for three hours, and is team-taught by two faculty members, one with background in materials science and the other with background inmanufacturing and design. Course activities aim to create a discovery-oriented learning
Paper ID #21220Design of a Cross-curricular Circuits Laboratory ExperimentMr. William Michael Delaney, University of Portland I am a recent graduate from the University of Portland where I received my Bachelors of Science in Mechanical Engineering in 2017. I am now attending the University of British Columbia working on my Masters of Engineering in Naval Architecture and Marine Engineering. I am expecting to graduate in 2018.Dr. Heather Dillon, University of Portland Dr. Heather Dillon is an Assistant Professor in Mechanical Engineering at the University of Portland. Her teaching focuses on thermodynamics, heat transfer
Paper ID #17580Using Service Oriented Remote Laboratories in Engineering CoursesProf. Hamadou Saliah-Hassane ing., TELUQ -University of Quebec Professor Saliah-Hassane is a senior researcher at L@d (Laboratory at Distance | TELUQ - University of Quebec), and member of the Ordre des ingenieurs du Quebec (OIQ); of the IEEE Education Soci- ety, Communication Society and Computer Society); He teaches informatics and computer networks at TELUQ l of University of Quebec. Professor Saliah-Hassane has a PhD in Computer Aided Analysis and Design from the Electrical and Computer Engineering at McGill University in Montreal and a
Tank Depressurization Experiments for the Classroom or Laboratory Meagan Olsen, Andrew L. Buck, W. Roy Penney and Edgar C. Clausen Ralph E. Martin Department of Chemical Engineering University of ArkansasIntroductionAmerican Society for Engineering Education data show that engineering enrollment in U.S.universities has increased by more than 50% over the last ten years, while the number ofengineering faculty has increased by only 15% over the same time period (Yoder 2009, 2017).As a result, the average number of students in engineering classrooms has steadily increased, andthis increase has occurred at a time when our students enter the classroom with far lessexperience in the
. Schmalzel and S.H. Chin, "An Integrated Communications, Digital Signal Processing (DSP) and Very Large Scale Integration (VLSI) Laboratory," Proceedings of the 2002 ASEE Annual Conference and Exposition, Montreal, Quebec, Canada.11. Internet URL http://www.analog.com12. Internet URL http://www.freescale.com13. M.D. Galanis, A. Papazacharias and E. Zigouris, " A DSP Course for Real-Time Systems Design and Implementation Based on the TMS320C6211 DSK," Texas Instruments 2002-2003 DSP Fest.14. T.B. Welch, M.G. Morrow, C.H.G. Wright and R.W. Ives, "commDSK: A Tool for Teaching Modem Design and Analysis," Proceedings of the 2004 ASEE Annual Conference and Exposition, Salt Lake City, Utah.15. Texas Instruments/Spectrum Digital, "TMS320C6713
described along with our plan for testing and assessing the ability of the remotelabs to convey practical aspects of control system phenomena.IntroductionThe Department of Mechanical Engineering-Engineering Mechanics at Michigan TechnologicalUniversity developed a required undergraduate Dynamic Systems and Controls laboratory that isa practical and relevant component of an engineer’s education. The purpose is to provide acombined laboratory experience that reinforces the traditional elements of the course. Faculty aredirectly involved teaching the lecture component of the course and are responsible for thecreation of laboratory experiments. Graduate students work closely with these faculty membersand teach the weekly labs.The primary goal of the
Community Driven Digital Signal Processing Laboratories in Connexions Richard Baraniuk,◦ Hyeokho Choi,◦ Douglas L. Jones, Lee Potter† ∗ Department of Electrical and Computer Engineering University of Illinois at Urbana-Champaign ◦ Rice University, † Ohio State University AbstractThe conventional textbook is largely inadequate for digital signal processing (DSP) laboratoryeducation due to inherent factors such as a small and
prepare for the opening of the laboratory including workshops toeducate faculty and presentations to inform the design community in the state of Oklahoma.2.3. Implementation of Testing Models into the CurriculumThe author will administer the laboratory to make it accessible to undergraduate and graduatestudents; and faculty in OSU. The implementation of testing daylighting models into thecurriculum will take place through the following activities: • Using the laboratory in teaching the two required Environmental Control courses for undergraduate students in the School of Architecture, OSU. • Using the laboratory in teaching an advanced Environmental Control course that focuses on the design for daylight. • Using the
. This is one way to use the equipment and premises efficiently. The cost of the equipmentand its maintenance can be cut down if the number of lab stations is reduced and/or thelaboratory is used outside ordinary working hours.Another purpose of the remote laboratory at BTH is to provide exercises which are almostidentical to conventional ones. In fact, the exercises in the remote laboratory could also beperformed in the traditional manner. The same laboratory instruction manuals will serve thepurpose. Conventional laboratory exercises have been used with success to teach science andengineering for many decades. To try to copy these exercises might be a good starting point fromwhich new teaching methods could emerge.In a traditional laboratory
equally important. Virtual instruments can be used to teach all of these areas ofinstrumentation. The Department of Electrical and Computer Engineering at Texas Tech Universityuses its first project laboratory, offered in the second semester of the sophomore year, to covermeasurements, instrumentation and other topics.II Project LaboratoriesThe Department of Electrical and Computer Engineering at Texas Tech University began stand-alone project laboratories in the early 1960s. The project lab structure has continued to evolve overthe past 40 years.1-9 Students take 5, 3-hour credit laboratories not directly associated with anylecture course. Although the laboratories have no directly associated lecture course, they do have preand co-requisites. In
skill development, students will be muchmore effective in their future careers. Preliminary work to improve the curriculum hassought to provide students with a fundamental education as well as with training in areasnot traditionally taught in lecture classes. Most undergraduate classes do not includelaboratory experiments. Due to inadequate instructional equipment, most efforts toimprove the undergraduate educational experience have been limited to field trips,writing projects, presentations, and project simulations.The state-of-the-art laboratory course serves as a model for meeting the challenges oflinking teaching with engineering practice. Environmental scientists and engineers mustunderstand the basic concepts of many subjects: fluid
Session 3220 Remotely Accessible Laboratory Approach for Undergraduate Education Sven K. Esche, Marehalli G. Prasad, Constantin Chassapis Department of Mechanical Engineering, Stevens Institute of TechnologyIntroductionToday, the hands-on activities typically associated with educational laboratories are widelyrecognized by all constituents of academia as imperative and integral elements of modernengineering curricula. This trend is evidenced through the new review criteria applied byeducational accreditation boards such as ABET and recent funding initiatives of governmental,charitable and
Session 1426 A Design Experiment for the Fluid Mechanics Laboratory James M. Munro Department of Chemistry and Chemical Engineering South Dakota School of Mines and TechnologySummaryThe Design-Build-Test (DBT) concept was used in creating a novel experiment for a junior-levelfluid mechanics laboratory. In the experiment, student teams are presented with a unique designobjective involving transport of a liquid with known or measurable properties and must design,build, and test a pump and piping system to achieve the objective. The experiment is part of
for the laboratory by investigating all aspects of theexperiment: theory, system operations, personnel assignments, safety concerns, workingequations and correlations, data acquisition, handling of measurement uncertainty, data analysis,and evaluation of experimental objectives. While all group members participate to some degree,the supervisor primarily interacts with the designated team leader, and the prelab grade isassigned to that individual.2.2 Experience: Hands-on Operation (Application)Upon completion of the prelab report, the student team commences its laboratory work,operating without input from faculty or teaching assistants (potential safety issues excepted).Student teams, as directed by their team leader, are in complete control
for teaching the theory and demonstratingthe practical implementation of MRI. That was the main motivation to develop asmall-scale MRI laboratory module. Furthermore, another potential usage for theappartus is for small-scale in vivo experiments, since cost and installation effortof such a system are significantly lower than in a hospital. Figure 1: MRI Brain Scan2 Previous WorkOthers have developed desktop NMR and MRI systems for teaching or researchuse; however, these systems have a major drawback of significantly high cost,making them impractical for most university teaching laboratories. Wright et al.[4] developed a complete desktop MRI system with a 2.5 cm imaging region and0.21 T field strength. The
community college teaching in 2005 and has worked as an instructor in engineering, physics, and math until the present time. Jim's interests are improving the engagement of engineering students and bringing more experiential learning to the students to better prepare them for real-world engineering work. © American Society for Engineering Education, 2022 Powered by www.slayte.comA Sequence of Laboratories for Beginning Statics Classesby Jim Sizemore, Ph.D., Mesa Community CollegeAbstractLaboratories are valuable to students because they provide experiential learning, integrating theory withpractice, inquiry learning, active learning, teamwork, planning experiments
1999 as Instructor at Engineering Requirement Unit. Currently she serves as Instructor at Mechanical Engineering Department. She ob- tained her B.Sc. degree from University of Khartoum, Sudan in 1990, and her M.Sc. degrees from the University of Khartoum in 1994, in Mechanical Engineering. Her research and teaching interests include mechatronics, dynamics and control, and geometric modelling.Mr. Muthanna Ahmed Aziz, United Arab Emirates University Muthanna A. Aziz joined United Arab Emirates University in 2008 as a Laboratory Specialist at Me- chanical Engineering Department. He obtained his B.Sc. degree from University of Baghdad in 2000 in Electronics and communication Engineering. His research interests include
integrated Korean Smart Grid System [11].The Energy System Research Laboratory at Florida International University is working onconstructing and implementing of a small-scale power system test-bed which has differentcapabilities for experimental research and educational purposes. This setup uses laboratory scaleof power system components in order to model the realistic behavior of a large power system. Byhaving this type of power system, engineers and researchers are capable to implement their ownidea about power system phenomenon in a practical way. It would be an excellent base not onlyfor innovative research ideas, but also for teaching power system engineering concepts tostudents who are interested to get an overall idea of power system
Processing Society’s Education Technical Committee, and he has been a member of the Society’s Board of Governors and Signal Processing Theory and Methods Technical Committee. Dr. Williams was co-editor of the Digital Signal Processing Handbook published by CRC Press and IEEE Press. He is a member of the Tau Beta Pi, Eta Kappa Nu, and Phi Beta Kappa honor societies. Page 22.1422.1 c American Society for Engineering Education, 2011 TESSAL: Portable Distributed Laboratories in the ECE CurriculumAbstract:The TESSAL (Teaching Enhancement via Small-Scale Affordable Labs) Center, funded by anNSF
Paper ID #43351A Novel Laboratory-Scale Pilot Plant StudyDr. Robert P. Hesketh, Rowan University Robert Hesketh is a Professor of Chemical Engineering at Rowan University. He received his B.S. in 1982 from the University of Illinois and his Ph.D. from the University of Delaware in 1987. After his Ph.D. he conducted research at the University of Cambridge. Dr. Hesketh has demonstrated an enthusiasm for engineering education and has contributed to the improvement of engineering education in many ways. Robert is a highly motivated professor in both undergraduate and graduate education and has received 12 education and 2
carryout research and assistance to institutions and universities in developing thecompetency based curriculum for engineering courses at various levels viz, Diploma,Degree and Post Graduate. The use of Information Communication Technology in the teaching learningprocess is promoted in India through a nationally coordinated project – National Projecton Technology Enhanced Learning. As part of this project, e-contents are developed forvarious courses and virtual laboratories are being established across the country. This paper discusses the above and similar practices in achieving qualityeducation in India and the areas of mutual collaboration with other countries
Laboratory/Demonstration Experiments in Heat Transfer: Forced Convection Edgar C. Clausen, W. Roy Penney, Alison N. Dunn, Jennifer M. Gray, Jerod C. Hollingsworth, Pei-Ting Hsu, Brian K. McLelland, Patrick M. Sweeney, Thuy D. Tran, Christopher A. von der Mehden, Jin-Yuan Wang Ralph E. Martin Department of Chemical Engineering University of ArkansasAbstractLaboratory exercises or demonstrations which are designed to compare experimental data withdata or correlations from the literature are excellent methods for reinforcing course content. Aspart of the requirements for CHEG 3143
AC 2007-476: USING A MECHANICAL ENGINEERING LABORATORY COURSEFOR ASSESSMENTKenneth Van Treuren, Baylor University Ken Van Treuren is a Professor in the Department of Mechanical Engineering at Baylor University. He received his B. S. in Aeronautical Engineering from the USAF Academy in Colorado Springs, Colorado and his M. S. in Engineering from Princeton University in Princeton, New Jersey. After serving as USAF pilot in KC-135 and KC-10 aircraft, he completed his DPhil in Engineering Sciences at the University of Oxford, United Kingdom and returned to the USAF Academy to teach heat transfer and propulsion systems. At Baylor University, he teaches courses in laboratory techniques, fluid
to give students direct exposure to the basics of the practice.Our approach aligns closely with the AIChE/SAChE guidelines for teaching safety and design,allowing students to gain appreciation for the importance and rigor of the process, providingsimple guidelines to help students identify and characterize potential hazards, and exposingundergraduates to What-If analyses to reinforce the idea that hazards can be controlled ormitigated with appropriate design.MethodologyProcess Hazard Analyses are being integrated in two successive courses, Unit Operations(Laboratory Practice and Statistical Analysis) and Process Design and Optimization. In bothcourses, after an introductory presentation defining Process Hazard Analyses, students are asked