theassessment methods for different methods of teaching.The works [5] and [6] present the solutions of power engineering laboratories which are suitablefor small undergraduate institutes with economic and space restrictions. A unified powerengineering laboratory is proposed in [6] which can be used for various experiments related topower systems, power electronics, and energy conversion.Different approaches of teaching laboratory classes in electrical engineering are discussed in [7].The author proposed a vertically integrated approach to hands-on laboratory experimentation forteaching PV systems. In this approach students get the experience of designing and building eachpart in a PV system.One important renovation for power systems laboratories is the
physically separated into two rooms sothat they could not communicate directly with each other but could do so only by text-chattingwithin the virtual laboratory environment. A teaching assistant was present in each room to helpthe students.In order to evaluate the usability of this game engine-based laboratory, a data set containing thestudents’ videogame playing background and a game log, which tracks the students’ activities,were collected and analyzed. The result shows that all students were able to complete thelaboratories regardless of their prior videogame playing experience. Also, it was discovered thatfrom the students’ laboratory operation perspective, most students made mistakes beforecompleting all tasks. From a collaboration perspective
Paper ID #27852Laboratory Course Development for Biomedical Signals and SystemsProf. Benjamin Hawkins, Cal Poly, SLO My professional interests focus on the development and use of microsystems (biosensors, microcon- trollers, etc) to matters of human health. Primarily this is focused on microfluidics, but also ranges from wearable devices to laboratory equipment. Applications range from cell measurements to ecological ques- tions. Educationally, I am focused on developing courses and content that connects theory to technology in practice, with an emphasis on rigorous understanding of both.Dr. James Eason, Cal Poly San Luis
AC 2007-99: MICRO-MANUFACTURING IN THE CLASSROOM ANDLABORATORYDavid Wells, North Dakota State University David L. Wells has been Professor of Industrial and Manufacturing Engineering at North Dakota State University since January 2000. He teaches undergraduate and graduate courses in process engineering and production engineering systems design for conventional manufacturing, electronics assembly and micro-manufacturing. His active research lies in micro-assembly, micro-machining, PCB process engineering, printed electronics, applications of RFID technologies, quantitative manufacturing management and manufacturing engineering pedagogy. He is active in SME, ASEE, SMTA, IEEE and ABET. Prior
notsignificantly change student learning. Multiple speculations may explain these results: (1)teaching and learning is a complex process sensitive to many factors and laboratory tools are onlyone of the many. The contribution of the new tools could be completely masked by the otherfactors; (2) the assessment instruments, although both subjective and objectives ones arecarefully selected here, might not measure laboratory learning effectively, confirming theconclusion that the assessment of laboratory work is tricky made in [9].Figure 4 shows that in the three assessed areas (voltage divider, equipment using, and datainterpretation) that are more closely related to electronic hand-on laboratory, the experimentgroup did not do as well as the control group
comments are extracted from student project reports. Overall, the comments arevery encouraging [10]: • “The Neophyte Receiver design and building experience diverged from my typical laboratory experience in several ways. Normally, the intent is for ‘laboratory experiments’ to enforce lecture topics. That said, a definite sense of compensation for hours spent in the lab could sometimes be lost, especially for an applied engineering technology student. A project such as building a short wave radio gives tangible purpose to time spent with hardware and serves to teach skills that might not otherwise be learned. More indefinable rewards were the ones that mattered most.” • “Attention to
. Morton, Todd, Embedded Microcontrollers, Prentice-Hall, Upper Saddle River, NJ, 2001.4. Morton, Todd, A Digital System Design Laboratory, ASEE National Conference, June 1991, New Orleans, La.5. CPU12 Reference Manual, CPU12RM/AD, Motorola6. MC68HC912B32 Technical Data, MC68HC912B32/D, Motorola7. M68EVB912B32 Evaluation Board User’s Manual, 68EVB912B32UM/D, MotorolaTODD MORTONTodd Morton has been teaching the upper level microprocessor and digital courses for Western WashingtonUniversity's Electronics Engineering Technology program for 13 years. He is the author of the text ’EmbeddedMicrocontrollers’, which covers assembly and C programming for the 68HC12. He has also worked as a designengineer at Physio Control Corporation and has worked several
Session 2526 A Laboratory Experiment in Linear Series Voltage Regulators Jeffrey S. Franzone University of MemphisAbstractMany advanced electronics courses cover linear voltage regulators from the “black-box” (or IC)perspective. Although this perspective is valid and useful, it doesn’t give students muchopportunity in a laboratory setting to deeply investigate the behavior of the major parts of theregulator, its characteristics, and the reinforcement of transistor theory. Many “canned” linearvoltage regulator labs favor the “quick-and-dirty” approach
AC 2011-514: USING A LIVING-BUILDING LABORATORY (BUILDINGAS A LABORATORY) AS A FLUID MECHANICS LABORATORY PROJECTIN THE ENGINEERING TECHNOLOGY CURRICULUMJason K Durfee, Eastern Washington University Professor DURFEE received his BS and MS degrees in Mechanical Engineering from Brigham Young University. He holds a Professional Engineer certification. Prior to teaching at Eastern Washington Uni- versity he was a military pilot, an engineering instructor at West Point and an airline pilot. His interests include aerospace, aviation, professional ethics and piano technology. Page 22.1601.1
Paper ID #12333Visual Communication Learning through Peer Design Critiques: Engineer-ing Communication Across DivisionsDr. Alyssa Catherine Taylor, University of Washington Alyssa C. Taylor is a lecturer in the Department of Bioengineering at the University of Washington. She received a B.S. in biological systems engineering at the University of California, Davis, and a Ph.D. in biomedical engineering at the University of Virginia. Taylor’s teaching activities are focused on develop- ing and teaching core introductory courses and technical labs for bioengineering undergraduates, as well as coordinating the capstone design
analyzing and thereby assessing howdifferent methods used in a flipped classroom setting will impact student-learning effectiveness.The study compares flipped classroom instruction to a traditional teaching method which is usedas a reference for control study. Data gathered for the analysis is based on a non-biaseduniformly distributed lab setting focused on using smart materials to determine the vibrationfrequency of a cantilever beam. The lab setup is a part of a Green Energy Materials &Engineering course offered in the summer 2014 semester. This class introduced students to theconcepts of Green Manufacturing, Green Technologies in industries, and Fabricating advancedGreen Energy devices. The framework used for gathering unbiased data
Paper 2005-1511 Laboratories for the Design and Assembly of Electronic Devices using Surface Mount Components Glenn R. Blackwell, P.E. Purdue University blackwell@purdue.eduAbstract Purdue’s ECET department has supported surface mount technology (SMT) in its labs forover 10 years. In that time the department has expanded its teaching of the design and assemblyof devices incorporating surface mount components (SMCs) from design basics and simplemanual assembly in one undergraduate class, to more complex designs and manual & automatedassembly in two electronic manufacturing courses
. Course Description and ObjectivesWhile PLC’s remained as the major component, the course modification allowedinclusion of various technologies, connections and contrasts between them, and their past,current, and future roles in industrial controls area. The added content and their detailsare presented in Table 2. Since a few new components were introduced to the curriculum,main hands-on additions were limited to the hardwired ralay-logic and integrated-circuitbased controls areas. These components were critical in teaching PLC basics and logic to Page 11.455.2the students. Besides having hands-on laboratories, demos and review discussions werealso
Paper ID #30554Development of a Printed Circuit Board Design Laboratory CourseDr. Pelin Kurtay, George Mason University Pelin Kurtay is Associate Professor and Associate Chair of the Electrical and Computer Engineering (ECE) Department at George Mason University. She currently heads the ECE Department’s undergrad- uate curriculum development efforts and leads other departmental initiatives. She is the recipient of the 2015 Teacher of Distinction Award at George Mason University for exceptional teaching and commitment to teaching-related activities in electrical and computer engineering and Information technology. She is a
2006-544: AUTOMATED ROBOTIC WORKCELL DESIGN TOOLKIT -PRELIMINARY EVALUATIONSheng-Jen Hsieh, Texas A&M University Sheng-Jen (“Tony”) Hsieh is an Associate Professor and member of the Graduate Faculty at Texas A&M University, College Station, TX. He holds a joint appointment with the Department of Engineering Technology and the Department of Mechanical Engineering and is a Halliburton Faculty Fellow for 2005-2006. His research interests include intelligent manufacturing system design, virtual instrumentation, thermal profiling for process and product characterization, and simulation and modeling. He is also the Director of the Rockwell Automation Laboratory, a state-of-the-art
networkingtechnologies have been developed. For example, remote laboratories (also known as e-Lab,Tele-Lab)5,6, virtual laboratories8,9,10,11, and hybrid laboratories6 have been developed to reducelab equipment setup costs and increase accessibility. Other developments include the use ofinteractive9, multimedia-enhanced12,13, and integrated14 approaches and the Design-Build-Testconcept15 to make learning more interactive and visual. However, there have been relatively fewattempts to use technology to teach PLC programming.The author was recently awarded a National Science Foundation grant to develop an IntegratedVirtual Learning System (IVLS) for PLC education that incorporates intelligent tutoring systems,simulations, and animations. A prototype version of
. Thepedagogical role of the Lego block concepts in teaching engineering and physical principles hasalso been documented6,7. These cases demonstrate that Lego Blocks play a role in teaching andresearch for higher education. At the same time, a study of the documented activities has notyielded an example that matches the concept described in this paper.Numerous examples of systems exist in the area of CIM for education; such systems have beendeveloped at universities for both the research and education purposes8,9,10,11. In addition, severalcommercial companies specialize in producing CIM environments for education14,15,16.CIM ENVIRONMENT FOR LEGO PRODUCTSThe challenges of developing CIM environments within an educational setting are not trivial inthe
] Atti V. and Spanias A., "On-line Simulation Modules for Teaching Speech and Audio Compression," 33rd ASEE/IEEE FIE-03, T4E - 17-22 Vol.1 Boulder, Nov 2003.[9] V. Atti, A. Spanias, C. Panayiotou, Y. Song, Y. Ko, "On the use of J-DSP for on-line laboratories in linear systems courses," Invited Paper, Conference Record of the Thirty-Seventh IEEE Asilomar Conference on Signals, Systems and Computers, Vol 2, pp. 1375-79, Nov. 9-12 2003[10] Ko, Y. Duman, T., Spanias A., "J-DSP for Communications," 33rd ASEE/IEEE FIE-03, T3E-13 - T3E-18 Vol.1 Boulder, Nov. 2003[11] A. Spanias, C. Panayiotou, T. Thrasyvoulou, and V. Atti, "Java-DSP Interface with MATLAB and its Use in Engineering Education," in Proc. of ASEE-2004 Conference, June
2006-721: MANUFACTURING LABORATORY LEARNING MODULES ONCAD/CAM/CMM AND ROBOTICSR. Radharamanan, Mercer University Dr. R. Radharamanan is a Professor of Industrial and Systems Engineering in the Department of Mechanical and Industrial Engineering at Mercer University in Macon, Georgia. He has twenty-eight years of teaching, research, and consulting experiences. His previous administrative experiences include: President of International Society for Productivity Enhancement (ISPE), Acting Director of Industrial Engineering as well as Director of Advanced Manufacturing Center at Marquette University, and Research Director of CAM and Robotics Center at San Diego State University. His primary
professional ethics.• Development of personal skills, such as communications, report writing and teamwork skills.Unfortunately, educational institutions often lack the resources needed to help students tobecome proficient with equipment. For example, a Manufacturing Automation and Roboticscourse typically uses programmable logic controllers, sensors, robots, and machine visionsystems in teaching automated manufacturing system design. However, students’ learning ishindered by obstacles such as:• High faculty-to-student ratios: For example, the ratio for Manufacturing Automation and Robotics at one major university is 1:36 for lectures and 1: 18 for each of two lab sections.• Limited lab access: Students may only use equipment during scheduled
Paper ID #27275An Introductory Communication Systems Course with MATLAB/Simulink-Based Software-Defined Radio LaboratoryDr. Cory J. Prust, Milwaukee School of Engineering Dr. Cory J. Prust is an Associate Professor in the Electrical Engineering and Computer Science Depart- ment at Milwaukee School of Engineering (MSOE). He earned his BSEE degree from MSOE in 2001 and his Ph.D. from Purdue University in 2006. Prior to joining MSOE in 2009, he was a Technical Staff mem- ber at MIT Lincoln Laboratory. He teaches courses in the signal processing, communication systems, and embedded systems areas. c
considering thecontrols aspects of electric drives. The buck SMPS is shown in Fig. 2. The switch SW1 and theflyback diode Df comprise the SPDT switch as described in Mohan, hence SW1 and Df serve asthe voltage to current port. The volt-second approach teaches the students the fundamentalprinciple of energy conservation (assuming ideal case) and helps to the establish steady stateoperation of the converter. Furthermore, coupled with the development of the method ofgenerating the PWM control signal, this approach greatly aids in their understanding of theconverter when working with the SMPS in the laboratory. Pulse Width Modulation (PWM) i A (t
SAE Ralph R. Teetor Educational Award, the 2000 UWM-CEAS Outstanding Teaching Award, and the 2005 UWM Distinguished Undergraduate Teaching Award. Dr. Reisel is a member of ASEE, ASME, OSA, SAE, and the Combustion Institute. Dr. Reisel received his B.M.E. degree from Villanova University in 1989, his M.S. degree in Mechanical Engineering from Purdue University in 1991, and his Ph.D. in Mechanical Engineering from Purdue University in 1994.Kevin Renken, University of Wisconsin-Milwaukee Kevin J. Renken is an Associate Professor of Mechanical Engineering at the University of Wisconsin-Milwaukee (UWM). He is the Director of the UWM Porous Media Heat Transfer Lab, the UWM Radon Reduction
2006-1313: DSP ON GENERIC MACHINESDick Blandford, University of Evansville Dr. Dick K. Blandford is the Chair of the Electrical Engineering and Computer Science Department at the University of Evansville. Page 11.499.1© American Society for Engineering Education, 2006 DSP on Generic MachinesAbstractMany electrical engineering classes which introduce digital signal processing at theundergraduate level include a laboratory component in which students implement systems ondedicated DSP boards. Many such boards are programmed in an unfamiliar assembly languageor they require cumbersome I/O drivers
, Wallace J. and Mark L. Spearman, Factory Physics, Foundations of Manufacturing Management, Second Edition, Irwin McGraw Hill, New York, 2001.[4] Jack, Hugh, ‘Teaching Integrated Manufacturing Systems with Programming,’ Proceedings of the 2001 American Society of engineering Education Annual Conference and Exposition, Session 3663.[5] Management Video Series, Volume IX, McGraw-Hill/Irwin, ISBN 0-07-287089-3.[6] McKinnon, Ronald I., U.S. Fiscal Deficits and Lost Jobs in Manufacturing, Stanford Institute for Economic Policy Research, October 2004.[7] Miller, Jeffrey G. and R. Paul Olsen, National Cranberry Cooperative, Harvard Business Review Case Study, # 675014.[8] Rossler, Paul, ‘Toward Complete, Coherent Production System Design
students that made important software contributions.BIBLIOGRAPHYBert, R. (1998) "Designing Sooner, Not Later", ASEE Prism, December Issue, pp. 18-19.CEES [School of Civil Engineering and Environmental Science] (1998) “Sooner City – Design Across theCurriculum”, Proposal to National Science Foundation, University of Oklahoma, Norman, OK.Siegel, D. (1999) "Technology Creates New Ways of Teaching Design", NSPE Engineering Times, pp. 11, 14, April1999BIOGRAPHYJess W. EverettJess W. Everett is an Associate Professor of Civil and Environmental Engineering in the College of Engineering atRowan University. He also serves as chair of the Landfilling and Composting committee of the Air and WasteManagement Association. Dr. Everett is a registered
applications make it mandatory for electrical and computer engineeringstudents to gain basic concepts in the digital domain in addition to the analog domain. This studyaims at integrating MSO features into analog oscilloscopes to teach students both digital andanalogue systems and signal analysis. The proposal will show how the MSOs can be used in theelectrical and computer engineering curriculum through an “Introduction to Microcontrollers”laboratory course. Two labs are introduced to allow the students to analyze and study the digitaldomain of the Serial Peripheral Interface (SPI) and the Inter-Integrated Circuit (I2C) protocols.Finally, the labs will teach the student how to analyze machine code and map it into both assemblyinstructions and high
refrigerantflowrate measurement. While this can serve as an excellent learning situation for the students itcomplicates the resulting data analysis and takes up additional laboratory time. Students can begiven parameter ranges for measurement points, however; since the system must be takenthrough a transition phase between each data point there is still the possibility of encounteringseveral of these problems. Based on a Minnesota State University Presidential Teaching ScholarFellowship research was conducted by the course instructor to address these issues.III. The Virtual Experimentation ConceptBased on previous work for a Course, Curriculum, and Laboratory Improvement (CCLI) grant3,4the idea of creating a virtual experiment that simulated the in-lab
projects that have motivated students to advance in research andcontinue their education pursuing graduate studies. As a matter of fact students have alreadypresented results from their scholarly work11,12.Some of the research projects motivated by the laboratory include topics like hybrid Page 11.418.5software/hardware approaches for teaching digital logic, implementation of multithreaded webservers using Java, implementation of integrated monitoring systems, studying the effects ofcongestion control on multimedia applications, and software/hardware simulation of multi-functioned calculators, among others.Each of the laboratory modules and course
Multidisciplinary Engineering Laboratory Course,” Journal of Engineering Education, July 1999, p 311-3165. S.T. McClain, “It Does Not Have to Be Rocket Science—But Sometimes It Is,” Proceedings of the 2002 ASEE Annual Conference.Biographical InformationDr. Lyons is an Associate Professor of Mechanical Engineering at the University of South Carolina and the Directorof the South Carolina Center for Engineering and Computing Education. He teaches laboratory, design, andmaterials science to undergraduates, graduate students and K-12 teachers. He researches engineering education,plastics and composites. Page 9.1417.6 Proceedings of the 2004 American Society