Paper ID #8859Student Peer Teaching in Engineering Laboratory SituationsDr. Ernest M. Kim P.E., University of San Diego Ernest M. Kim received the B.S.E.E. from the University of Hawaii at Manoa, and M.S.E.E. and Ph.D. in Electrical Engineering from New Mexico State University. After spending ten years in industry at the then National Bureau of Standards (now NIST) in Boulder, Colorado, Burroughs Corporation (now Unisys) in San Diego, California, and TACAN Corporation in Carlsbad, California, he joined the faculty of the University of San Diego in 1990. He is currently Associate Professor of Electrical Engineering at
AC 2009-1206: ADVANCED DIGITAL LABORATORY: AN FPGA-BASEDREMOTE LABORATORY FOR TEACHING DIGITAL ELECTRONICSKayode P. Ayodele, Obafemi Awolowo University, Ile-Ife, NigeriaOlawale Akinwale, Obafemi Awolowo University, Ile-Ife, NigeriaLawrence Kehinde, Texas Southern UniversityOladipo O. Osasona, Obafemi Awolowo University, Ile-Ife, NigeriaE.O.B. ajayi, Obafemi Awolowo University, Ile-Ife, NigeriaO.O. Akinwunmi, Obafemi Awolowo University, Ile-Ife, Nigeria Page 14.163.1© American Society for Engineering Education, 2009 Advanced Digital Laboratory: An FPGA-Based Remote Laboratory for Teaching Digital ElectronicsAbstractThe experimentation component of
AC 2009-996: TEACHING MICROCONTROLLER APPLICATIONS USINGLAPTOP COMPUTERSJohn Gumaer, Central Washington University John A. Gumaer is an associate professor of Electronics Engineering Technology at Central Washington University. He was also an assistant professor of Engineering Technology at Northern Michigan University. Before joining academia, he worked for more than ten years in hardware and software engineering and development. He earned a MSEE from the University of Texas at Austin and is a registered professional engineer. Page 14.1145.1© American Society for Engineering Education, 2009
consulting experience includes work in England, Kazakhstan, Germany, USA and Poland. Page 13.942.1© American Society for Engineering Education, 2008 On-line Games and Simulation Tools for Teaching Manufacturing Engineering LaboratoryOne of the main expectations of modern students is that their instructors employ contemporaryteaching tools that are user-friendly, fast, colorful, multitasking, efficient and interactive. Inresponse to these changing student needs, both the laboratory content and the delivery methodsare being modified over the past three years for almost all engineering courses at Robert
AC 2007-1962: TEACHING A LABORATORY-BASED IPV6 COURSE IN ADISTANCE EDUCATION ENVIRONMENTPhilip Lunsford, East Carolina University Phil Lunsford received a B.S. in Electrical Engineering and a M.S. in Electrical Engineering from Georgia Institute of Technology and a Ph.D. in Electrical Engineering from North Carolina State University. He is a registered professional engineer and is currently an Assistant Professor at East Carolina University. His research interests include system simulation, telemedicine applications, and information assurance.John Pickard, East Carolina University John Pickard has more than 15 years in the Technical training profession and 9 years experience in the
generationof engineers and scientists. Teaching micro and nano scale technologies is often challenging andexpensive due to the cost and complexity of typical systems that are utilized to access the microand nano realm. In this work we discuss the Class on a Chip System, which has four maincomponents: packaged Microelectromechanical Systems (MEMS) chip, driver board/controlelectronics, graphical user interface, and laboratory experiments. The system provides arelatively low cost MEMS experimentation platform which can be utilized through a reasonablecontingent of laboratory tools (microscope and personal computer) available at most educationalinstitutions to teach fundamental physics and engineering knowledge, as well as illustrateimportant micro and
assign different roles to, depending on the experiment.Many students requested to be offered supplementary lab sessions so that they can familiarizethemselves with previous experiments or acquaint themselves with prospective ones. However, itwas very difficult to match these requests in view of the inadequate amount of space and time,and the limited availability of teaching assistants. In this paper, we present the design of a Remote Internetworking Laboratory, which we fullyimplemented, tested and allowed for use by a sample group of students. Our design allows thelab to be accessed remotely, anywhere and at anytime. Furthermore, it overcomes the limitationon the number of devices, by making them accessible 24 hours/7 days a week. Students
c American Society for Engineering Education, 2013 Teaching Engineering Design Concepts Through A Multidisciplinary Control ProjectAbstractThis paper described the design and the implementation of a multidisciplinary project in two-sequential control courses to reinforce students’ understanding of engineering design conceptsfrom a system point of view. Such a project had two phases which corresponded to the twocourses. In the Phase I of the project, a vague problem idea was given, which required thestudents to design a (multidisciplinary) mechatronics system. The students formed in teams andcollected information to further define the project before drawing their first drafts. Multiple ideaswere
AC 2009-251: A LABORATORY EXERCISE TO TEACH THE HYDROSTATICPRINCIPLE AS A CORE CONCEPT IN FLUID MECHANICSRobert Edwards, Pennsylvania State University, Erie Robert Edwards is currently a Lecturer in Engineering at The Penn State Erie, The Behrend College where he teaches Statics, Dynamics, and Fluid and Thermal Science courses. He earned a BS degree in Mechanical Engineering from Rochester Institute of Technology and an MS degree in Mechanical Engineering from Gannon University.Gerald Recktenwald, Portland State University Gerald Recktenwald is an Associate Professor in the Mechanical and Materials Engineering Department at Portland State University. He is a member of ASEE, ASME, IEEE and SIAM. His
AC 2011-84: TEACHING FLOWNET CONCEPTS TO ENGINEERING UN-DERGRADUATES USING ELECTRICAL ANALOGY OF GROUNDWA-TER FLOWMurthy Kasi, North Dakota State University Murthy Kasi is currently an Environmental Engineering doctoral candidate in the Department of Civil Engineering and an Instructor in the Fluid Mechanics laboratory for undergraduates at North Dakota State University, Fargo, North Dakota, USA. He obtained his Bachelors degree in Civil Engineering from Andhra University, India, and Masters in Environmental Engineering from South Dakota State University, Brookings, SD, USA. Areas of concentration of his doctoral research are groundwater bioremediation, wastewater treatment, and water quality modeling. He has been
Society for Engineering Education, 2011 A Relevant, Automotive-Themed Experiment that Teaches Fundamental Flow Rate Concepts and Experimental UncertaintyAbstractIt is a common experience, in undergraduate laboratories, that the students perceive the simplebench-top experiments to be boring or irrelevant to real engineering and societal problems.Without relevance, many students feel disconnected from the lab experience, lose interest inwhat they are doing and do not think while they are in the lab. If students do not think about theactual measurement, the measurement errors and how the measurements relate to an engineeringmodel or to the information that they are trying to gain, then the lab experience has failed.Described in
Paper ID #19754An Educational Laboratory Experimental System for Teaching Chemical Re-action Process Dynamics and ControlMalia L. Kawamura, University of Illinois, Urbana-Champaign Malia Kawamura is an M.S. candidate in Mechanical Science and Engineering at the University of Illinois at Urbana-Champaign in the Alleyne Research Group. She is funded by the National Science Foundation Graduate Fellowship Program.Prof. Andrew G. Alleyne, University of Illinois, Urbana-Champaign Dr. Andrew G Alleyne is the Ralph & Catherine Fisher Professor of Mechanical Engineering at the Uni- versity of Illinois (UIUC). He received his
2006-2363: A HYDRODYNAMIC WHEATSTONE BRIDGE FOR USE AS ATEACHING TOOL IN INSTRUMENTATION LABORATORY COURSESDavid Bloomquist, University of FloridaMichael McVay, University of FloridaScott Wasman, University of FloridaClinton Slatton, University of Florida Page 11.56.1© American Society for Engineering Education, 2006 A HYDRODYNAMIC WHEATSTONE BRIDGE FOR USE AS A TEACHING TOOL IN INSTRUMENTATION LABORATORY COURSESAbstractUndergraduate engineering students often find systems composed of electrical circuits difficultto grasp because variables such as current, voltage, resistance, capacitance, and inductance arenot easily visualized as their
AC 2007-189: ENGINEERING LABORATORY EXPERIMENTS – ANINTEGRATED APPROACH OF TEACHING THE INTRODUCTORYENGINEERING COURSEAtin Sinha, Albany State University Atin Sinha is the Regents Engineering Professor and Coordinator of the Engineering Program at Albany State University. He received his Ph.D. in Aerospace Engineering from the University of Tennessee Space Institute in 1984. He had worked in aeronautical research and industry (National Aerospace Laboratory-India, Learjet, Allied-Signal) for 12 years before moving to academia in 1990. He is also a Registered Professional Engineer in Oklahoma. Currently, he is engaged in motivating undergraduate students in inquiry based learning through
and practice for senior projects. In our campus, senior students are required topresent and demonstrate their senior projects in the senior project fair, in which those projectswere evaluated by the engineering technology faculty members and other senior students.V. Future Improvement Based on our experiences from teaching DSP courses, we felt that in Portion 1, all thelectures containing well-established topics including the digital spectrum, the FIR and IIR filterimplementations and developed laboratories are suitable. Even though the topics of DFT, FFT,bilinear transform method and optimum design seemed challenging to our technology studentsdue to the demand of their math proficiency to understand certain subjects, we still
and Aerospace Technology at UDC. He is a Past President of DCSPE and is currently the Director of the Civil Engineering Program and the Chairman of the Professional Engineers in Higher Education (PEHE) of DCSPE. Over 30 years of teaching and engineering practice in Europe, Japan and the US. Page 13.1252.1© American Society for Engineering Education, 2008 THE PEDAGOGY OF THE SURVEYING LABORATORY Abstract Surveying and surveying laboratory (field work) fifty years ago were standard fair for most engineering programs in all disciplines. Today, in the 21st Century, surveying is no longer an
six mask set to create P and N type transistors as well asinverters and diodes. The students will be conducting oxidization, RCA clean,photolithography, etching, diffusion, metallization and other processes. A briefdescription of these processes and the methods used to teach them will also be described.In addition to these processes students will also learn about clean room protocol,chemical safety, and testing devices. All of these skills will be marketable to futureemployers and graduate schools. These same skills and processes will be covered in aseminar course for educators, with the main purpose of inspiring the high school teachersto teach about semiconductor manufacturing. The cost effective design is what makes the laboratory
mechatronic projects. • Demonstrate effective oral and written communication skills in the context of collaborative exercises on mechatronic system modeling and control.For this laboratory, a set of experiments is designed and implemented based on real-world issues[5,9-11] and effective use of laboratory resources [6,7]. The laboratory uses the popular,commercially available MATLAB environment, the Simulink toolbox, and the Real-TimeWorkshop.For some time, students have been demanding more real-world applications in the classroom.Due to the fact that control engineering is highly multidisciplinary, it provides a goodenvironment to teach mechanical, electrical, and computer engineering students about controlsystems. The laboratory will
AC 2008-1600: A WRITING-INTENSIVE FLUID MECHANICS LABORATORYPhilip Parker, University of Wisconsin-Platteville Page 13.134.1© American Society for Engineering Education, 2008A Writing-Intensive Fluid Mechanics Laboratory Philip J. Parker University of Wisconsin-Platteville Page 13.134.2BackgroundCE330, Fluid Mechanics, is required of all Civil and Environmental Engineering students at theUniversity of Wisconsin-Platteville. This four credit class consists of three 1-hour lectures andone 2-hour laboratory each week. Approximately 40 students enroll in the course each semester.When I teach the course, my
the integrated laboratory resources. We also plan toevaluate how this new integrated laboratory affects teaching and the learning experience. Finally,we will continue to expand the integrated curriculum and laboratory, such as setting up a student-operated Network Operations Center (NOC) for the campus or even the local region and addingwireless cellular communications to the laboratory.Bibliography1. S. Wu, R. Athinarayanan, X. Hou, “Integrated Curriculum and Laboratory Development of an Undergraduate Telecommunications and Computer Networking Program,” Proceeding of ASEE Annual Conference and Exposition, Pittsburgh, PA 2008.2. http://www.tech.uh.edu/WON/index.php3. Falcon Communications Inc., http
2006-101: WEBLAB – COMPREHENSIVE REMOTE LABORATORY SYSTEMZachery Allen, Bismarck State College Mr. Allen has over 9 years of technical experience in the Computer Industry, the last six of which have been specifically in the Electrical Industry. He presently works for Bismarck State College (BSC), leading development of new and interactive tools for teaching online. He previously led the development of a degree program for Electrical Transmission Systems Technology (ETST). In addition he is the resident expert on transmission systems operation and helps manage relations with the Electrical Industry.Daniel Schmidt, Bismarck State College Mr. Schmidt has over 23 years of experience in
is expected in an upcoming issue of theMetrologist. Metrology Ambassadors have identified resources that would be useful inclassrooms. At this time, they are sharing ideas and taking equipment that they each think willbe interesting to students. Experience in the United Kingdom has been successful. However,NCSLI has not had enough experience with providing resources to know what measuringstandards and instruments would be best to include in kits.Virtual Physical Laboratory. In the absence of a laboratory or hands-on kits and resources,teachers are at a disadvantage in teaching such subjects as physics, engineering, and othermeasurement-related disciplines. One of our colleagues in the United Kingdom spent timeteaching Physics in India and
Metrologists in industry has not declined over the years in sync with the availabilityof trained technicians. Contrarily, it has grown at an alarming rate, with needs for Metrologistsin calibration laboratories, pharmaceuticals, government labs, research and development,aerospace, state weights and measures, and a host of other positions. The gap between education/ training and demand has become a major focus throughout the metrology community. The shiftfrom military schooling to the private sector has been a rough road with few successes and manyfailures. The reasons vary but common ground seems to be shared between the expense of start-up and operating a metrology course and obtaining suitable attendance numbers.The general lack of knowing the term
outreach activityto strengthen the metrology profession. The Navy Metrology Engineering Center andMeasurement Science and Technology Laboratory are located at the Naval Surface WarfareCenter, Corona, CA. Since narrowly surviving the 1995 Base Realignment and Closure (BRAC)round, the Center needed a long term strategic approach to providing a pipeline of engineers toreplace those lost during the BRAC process and a plan to replace the mass of baby boomersapproaching retirement in the next 15 to 20 years. The Center developed a proactive approach tomaintaining a pipeline of engineers that involved numerous outreach activities into the universityand college systems and into local high schools that helped solve more immediate needs.However, it became
AC 2012-3242: TEACHING ADAPTIVE FILTERS AND APPLICATIONSIN ELECTRICAL AND COMPUTER ENGINEERING TECHNOLOGY PRO-GRAMProf. Jean Jiang, Purdue University, North Central Jean Jiang is currently with the College of Engineering and Technology at Purdue University, North Central, Westville, Ind. She received her Ph.D. degree in electrical engineering from the University of New Mexico in 1992. Her principal technical areas are in digital signal processing, adaptive signal processing, and control systems. She has published a number of papers in these areas. She has co-authored two textbooks: Fundamentals of Analog and Digital Signal Processing, Second Edition, AuthorHouse, 2008; and Analog Signal Processing and Filter Design
other senior students.V. Future Improvement Based on our experiences from teaching DSP courses, we felt that in Portion 1, all thelectures containing well-established topics including the digital spectrum, the FIR and IIR filterimplementations and developed laboratories are suitable. Even though the topics of DFT, FFT,bilinear transform method and optimum design seemed challenging to our technology studentsdue to the demand of their math proficiency to understand certain subjects, we still havesuccessfully delivered the course materials with an emphasis on principles and hands-onapplications instead of theoretical development. On the other side, based on the DSP industrialtrend, we could improve the course by introducing additional
included numerous facultyworkshops and on-line courses3 to disseminate the new teaching methods to Universities acrossthe United States and abroad. In this time, enrollment in power courses at the University ofMinnesota has increased several fold. Four new electric power textbooks have come from thiseffort4-7, as well as completely redesigned laboratories for the Power Electronics course and theElectric Drives course8. The hardware for the Electric Drives laboratory was designedspecifically for the laboratory and includes active loads that can be controlled and modified bythe students.Software Used to Implement the New Teaching MethodComputational tools are vital teaching tools in the classroom and the teaching laboratory. Let usdiscuss the use of
mechanical engineering from Duke University in 2010 and a Ph.D. in 2014 with a focus on nonlinear dynamical systems. She now works in the Center for Instructional Technology and teaches dynamics at Duke University. c American Society for Engineering Education, 2016 Massive Open Online Laboratories? Ongoing Work with Microelectronics Experiments Performed Outside of the Traditional LaboratoryKip Coonley, Kim Manturuk, Justin Miles, Genevieve Lipp, Chris Lorch, Christopher Woodard, Martin Brooke Duke University, Durham, NC 27708AbstractWith the advent of open source hardware and software, students are able to perform advancedmicroelectronic
Engineering Education, 2006 The LASER CULT: Hands-on Laboratory in PhotonicsIntroduction: Challenges in Teaching OpticsThe unique nature of the field of optics creates challenges for effectively teaching optics inengineering disciplines. Harnessing Light, a study by the National Academy of Sciences1, pointsout that “Although optics is pervasive in modern life, its role is that of a technological enabler: Itis essential, but typically it plays a supporting role in a larger system.” To enable the teaching ofoptics in science and engineering program the study identifies two issues that need to beaddressed when designing programs that teach optics: “How to support and strengthen a fieldsuch as optics whose value is primarily enabling” and
engineering education. Maxwell is an IEEE member, a member of the Australasian Association for Engineering Education (AaeE), and was recently awarded a USQ Dean’s Commendation for Achievement in Learning and Teaching in 2011.Dr. Peter D. Gibbings Peter Gibbings is an Associate Professor and the Associate Dean (learning and teaching) in the Faculty of Engineering and Surveying at the University of Southern Queensland. His professional background is in land surveying and his key research interests include problem-based learning, remote access laboratories, and engineering education. His academic achievements have been recognized by receiving a University Medal in 2003 for excellence in design and delivery of problem-based