Session XXXX Laboratory Tank Draining Uncertainty Analysis Exercise Randall D. Manteufel Mechanical Engineering Department University of Texas at San Antonio Jason B. Pleming Mechanical Engineering Department University of Texas at San Antonio AbstractInexpensive and simple tank draining exercises amenable to uncertainty analysis arepresented. The tanks are simple to construct and allow direct
: Configuration 1 interface5. ConclusionsThis paper presents two remote laboratory experimental systems designed and developedusing the described strategy. One is a sensor actuator system the user can manipulate toperform certain laboratory experiments. The system also complements teaching Pythonprogramming for a Raspberry Pi over the web. Students can write their programs and uploadthem on the remote experimental system. The sensors and actuators are an array of lightemitting diodes, a temperature sensor, a liquid crystal display, a servo motor, and anultrasonic sensor. A suitable GUI was also developed so remote users can manipulate thecontrolled entities with little difficulty. The second experiment is a coupled tank system forperforming process
Indiana school and receive 50%back in a state tax credit. That along with the federal deduction results in the donation not costingmuch in real dollars. Often, with this as an incentive, individuals will donate much more.Laboratory EquipmentOne advantage to Purdue University Calumet’s location is the proximity to the InternationalManufacturing Technology Show (IMTS) held in even numbered years at McCormick Place inChicago. Given that the campus is but 30 minutes from the show, the author is able to attendregularly and study the available equipment. Based on many IMTS shows, discussions withnumerous local manufacturing companies, and a dozen years teaching manufacturing processes,the author’s opinions on equipment for a manufacturing laboratory
Session # 2526 Establishment of Mechatronics Laboratory at UMES Abhijit Nagchaudhuri, Srinivas Sai Shyam, John Wood, Anthony Stockus University of Maryland Eastern Shore Princess Anne, MD 21853-1299AbstractModern mechanical engineering curriculum not only emphasizes the fundamentals ofsolid mechanics, fluid mechanics and thermal sciences but also the applications of thesesubjects in design, control and manufacturing.Mechatronics is the synergistic integration of mechanics, instrumentation and control,software engineering and information technology. As such it integrates well with not onlythe
voltage values. • Start ControlDesk and obtain the layout as shown in Fig. 6. Figure 6. The ControlDesk Interface Snapshot for the Wind Turbine Emulation System • The teams were also reminded about the final experimental setup verification by the Teaching Assistants before starting the operation: BEFORE turning on the final system, have the laboratory TA check the system connections, the model in Matlab, the layout in Dspace, and the auxiliary system connections. Since the initial wind speed is nonzero in Fig. 3, the system shaft rotates at high speeds immediately after turning it on! The teams were given the following concept questions during the actual laboratory and were asked to
Session 1526 A Comprehensive, Laboratory-Enhanced Communications Curriculum Jeff Frolik University of VermontIntroduction Over the past decade, the field of wireless communications has come into its own and isposed to become a ubiquitous technology with the recent arrival of 3G cellular, wireless localarea networks and wireless sensor networks. As such, today’s graduating electrical engineersneed marketable skills which are typically not developed in undergraduate curricula. This paperpresents ongoing activities at the University of Vermont (UVM) which
). “Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition Copyright ã2002, American Society for Engineering Education”In addition, faculty from all engineering departments will have the opportunity to utilize theNetworked Systems Laboratory. For example, faculty members teaching the ComputerArchitecture course (CSCI 320) might use the lab students to give students the experience ofmeasuring the performance of a system with modified hardware, such as less cache memory.Networking Systems Laboratory EquipmentThe Networking Systems Lab includes fourteen computers, interconnected with a 100Mb/secFast Ethernet that provides reliable remote access to files and access to campus network
graduate level for the last 13 years or so. His coursesinclude two junior level laboratories devoted to processing and microstructural characterization of ceramics.Educated in England, Dr. Rahaman received B.A. and M.A. degrees in Physics from Cambridge University and aPh.D. degree in Polymer Science from Sheffield University. In addition to his teaching duties, he is activelyinvolved in ceramics research and has published a textbook and approximately 90 publications.WILLIAM G. FAHRENHOLTZWilliam G. Fahrenholtz joined the Ceramic Engineering Department at the University of Missouri-Rolla as anAssistant Professor in July, 1999. He received B.S. and M.S. degrees in Ceramic Engineering from the University ofIllinois at Urbana-Champaign and a Ph.D. in
SESSION 3666 A LABORATORY FOR MECHATRONICS COURSES Jawaharlal Mariappan GMI Engineering & Management Institute Flint, MIABSTRACTMechatronics is a relatively new field that represents the integration of mechanical, control,electronics and computer engineering for the design of products and processes. Understandingthe rapidly changing needs of the industry, recently, academic institutions in the US have begundeveloping and implementing mechatronics courses that are multidisciplinary in nature. Theobjective of these courses is to provide the students with
Session 2359 A Remote Laboratory for Electrical Experiments Ingvar Gustavsson Department of Telecommunications and Signal Processing The Blekinge Institute of Technology, SwedenAbstractMany laboratory experiments in electrical engineering courses can be performed remotely usingreal equipment. Conventional electrical circuit experiments have been conducted over the Internetat BTH (Blekinge Tekniska Högskola: The Blekinge Institute of Technology) in Sweden fromdifferent locations simultaneously using an experimental hardware setup in a closed room at
systemThe simulation model of the cantilever beam experiment is used to describe in detail theoperations of the features of the virtual laboratory discussed above.Cantilever Beam ExperimentsThe cantilever beam is a widely used structural element19, for example in airplane wings,supports for overhanging roofs, the front spindles of automobiles, etc. A cantilever is commonlydefined as a beam which is built-in and supported at only one end, and loaded by one or morepoint loads or distributed loads acting perpendicular to the beam axis. This experiment is toverify the relationship between the bending-moment, and stress-strain distributions along thelength of a cantilever beam. The objective of this experiment is to teach all undergraduateengineering
the University of Pittsburgh atJohnstown (UPJ) and Concurrent Technologies Corporation (CTC) collaborate to provide avaluable educational experience for engineering technology students. A description of themotivation for pursuing this collaboration and each organization’s respective role in fulfilling thecollaboration is presented. In addition, examples of typical laboratory experiments are presentedin the context of those motivations and roles. The authors hope that the collaboration describedmay provide guidance for the ASEE community to leverage this approach with their respectivelocal resources.Goals of the CollaborationA basic tenet of the educational philosophy of the Mechanical Engineering Technologydepartment at UPJ is to teach the
project based learning. Laboratories, are expensive, but are an efficientvehicle to accomplish student learning. They are refreshing for many students, a welcomecounterpoint to lecture as they provide the challenge as they teach their lesson, rather than in adeferred quiz. Laboratories allow students to demonstrate outcomes mandated by ABET’sEngineering Criteria 2000. In well conceived laboratories students demonstrate an ability to: 1.Apply the tools of modern engineering and science to solve relevant problems. 2. Implementappropriate experimental procedures. 3. Handle data, draw and articulate conclusions. 4. Make “Proceedings of the 2003 American Society for Engineering Education Annual Conference & Exposition
, the School ofEngineering received its first accreditation from the Canadian Engineering Accreditation Board(CEAB).The creation of a new School of Engineering offered an exciting opportunity to stress integrationand design from the outset. During the first two years, which are common to all three disciplines,all students study together, in an effort to both teach and show students the integration ofengineering concepts desired by industry and recognized by many as ideal. In addition to takingtraditional engineering courses, students (in both first and second year, and again in the fourthyear capstone design course) work in multi-disciplinary teams on major design projects thatintegrate technical knowledge and metaskills. As noted by
the students’ understandingof heat transfer dealing with convection. Educators also used numerical tools besidesexperiments to strengthen students’ concept on academic interests. Besser4 used spreadsheets tosolve two-dimensional (2D) heat transfer problems. Goldstein5 also used computational methodsto teach several topics in heat transfer courses besides the standard in-class lectures. All of theabove mentioned efforts were provided to strengthen the students’ understanding in severaltopics in a heat transfer course.At our institution, we usually conduct several laboratory experiments along with the regularlectures to enhance the students’ understanding. Courses where we take this approach includeEngineering Materials, Fluid Mechanics
graduate students in STEM to foster research and professional development skills. She also has relevant experiences in organizing undergraduate research symposium/conferences, hosting professional development workshops, providing guidance on undergraduate/graduate school application. Currently, she serves as a Teaching Scholar for the K-12 STEM Education Program at Berkeley Lab and is involved with curriculum development of K-12 outreach at LBNL.Lydia Rachbauer, Lawrence Berkeley National Laboratory Lydia Rachbauer is a Project Scientist at the Lawrence Berkeley National Laboratory in Berkeley, California, as part of the Deconstruction Division at the Joint Bioenergy Institute. She holds a bachelor’s degree in Food
educational, integrate and apply the knowledgeobtained in courses such as statics, solid mechanics and instrumentation. It demonstrates thepotential use of strain gages as sensors. Strain gages, and signal conditioners are used tomeasure, calculate and analyze force by direct application of a concentrated or distributed loads.These experiments provide students with hands on experience with using strain gages, signalamplifiers, and conditioners and setting up and balancing Wheatstone bridge.IntroductionIn engineering education today, instrumentation and computer integration are increasinglybecoming part of teaching in classrooms. Faculty use new technologies to increase their teachingeffectiveness in their classrooms. In addition, laboratory
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
AC 2012-3976: POWER AND EFFICIENCY MEASUREMENT IN A THER-MOELECTRIC GENERATORDr. Steven O’Halloran, University of Portland Steven O’Halloran is an Assistant Professor of mechanical engineering at the University of Portland (UP) and teaches courses in the thermal/fluid sciences. He conducts research in the area of heat exchangers including both experimental work and numerical simulations. O’Halloran received his B.S. (2000), M.S. (2002), and Ph.D. (2006) degrees in mechanical engineering from Kansas State University.Mr. Matthew Rodrigues, University of Portland Matthew Rodrigues is a senior in mechanical engineering at the University of Portland, Donald P. Shiley School of Engineering
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
AC 2012-4137: INTEGRATED HANDS-ON DYNAMICS LABORATORIESIN THE CLASSROOMDr. Arif Sirinterlikci, Robert Morris University Arif Sirinterlikci is a professor of engineering at Robert Morris University School of Engineering, Math- ematics, and Science. He also serves as a Director of Engineering Laboratories as well as Co-head of the Research and Outreach Center. He has been an active member of ASEE and SME, serving as an officer of both societies and engaged in engineering education and K-12 outreach.Dr. Tony Lee Kerzmann, Robert Morris University Tony Kerzmann received both a bachelor’s of arts in physics from Duquesne University and a bachelor’s of science in mechanical engineering from the University of Pittsburgh in
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
Paper ID #11226USACE’S COASTAL ENGINEERING CERTIFICATE PROGRAMMr. Jose E. Sanchez P.E., Coastal and Hydraulics Laboratory Mr. Jos´e E. S´anchez is the Director of the Coastal and Hydraulics Laboratory (CHL) at the U.S. Army Engineer Research and Development Center (ERDC) in Vicksburg, MS. ERDC R&D supports the Depart- ment of Defense and other federal agencies in military and civilian projects. Principal research mission areas include Warfighter support, installations, environment, water resources, and information technology. CHL is the national laboratory for the specialized professional field of coastal and
Session 1148 Teaching Critical Thinking Bertram Pariser TCI, The College for TechnologyAbstractThis paper describes the challenge of Teaching Critical Thinking to a class of physicsstudents at TCI, The College for Technology in the fall semester of 2000. Besidesachieving its goal of helping students to think critically, teaching critical thinkingprovides fun and students find it quite rewarding. Students are encouraged to work oncreativity throughout the semester, in class, in laboratory experiments, on homeworkproblems and in the creation of examinations. 1
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
Laboratory, Nuclear Science and Technology Division, InternationalSafeguards Group. Instructors or mentors can use the NAT to teach students thefollowing concepts: • What facilities comprise the NFC? • What is the purpose of each NFC facility? • In what order do materials flow through the NFC? • What are some quantitative and qualitative methodologies for assessing PR? • What parameters are important for determining the PR of a NFC facility? • Where can one find the pertinent data for determining the PR of a NFC facility? • Is the PR value a static or dynamic variable? • What can be done to increase or decrease the PR of a NFC facility? • Which parameters most heavily affect the PR value? • What is ORIGEN
Laboratory of KnowledgeEngineering for Materials Science Xiong Luo received the Ph.D. degree from Central South University, China, in 2004. He currently works as a Professor in the School of Computer and Communication Engineering, University of Science and Technology Beijing, China. His current research interests include machine learning, cloud computing, and computational intelligence. He has published extensively in his areas of interest in journals, such as the Future Generation Computer Systems, Computer Networks, IEEE Access, and Personal and Ubiquitous Computing. c American Society for Engineering Education, 2017Enhancing Communication with Students Using a Teaching Method Based onTopical
2004-2005 and 2005-2006 academic years. Page 12.1369.1© American Society for Engineering Education, 2007 Teaching Psychrometry to Undergraduates by Michael R. Maixner United States Air Force Academy and James W. Baughn University of California at Davis AbstractA mutli-faceted approach (lecture, spreadsheet and laboratory)used to teach introductory psychrometric concepts and processesis reviewed. During introductory lectures, basic thermodynamicprinciples
do so, but the team-teaching format adds vitality and broadens the scope of thematerial to be addressed.Several labs are necessary on a part-time basis to support the Environmental Systems courseincluding an electronics classroom, elementary circuits laboratory and access to water for someof our river modeling experiments.In summary this course has required a significant commitment by our department to insure itssuccess. Based upon our students' enthusiasm for the course/laboratory, we feel the course hasbeen worth the sacrifices.5. THE ENVIRONMENTAL SYSTEMS ENGINEERING TRACKA track in our Systems Engineering major is comprised of a two-course, sequential offering. Thefirst course in the track, Environmental Systems Engineering is the topic
2006-930: MAKING MULTIDISCIPLINARY TEACHING COMMONPLACEDavid Ollis, North Carolina State University Page 11.907.1© American Society for Engineering Education, 2006 Making Multidisciplinary Teaching CommonplaceAbstractThe repeating cry for more campus courses containing multidisciplinary aspects begs thequestion "How is Multidisciplinarity to be identified and assessed?" We discuss threeengineering approaches to this question: 1. "Doing it all yourself" which requires dual initial degrees or extensivemid-career retraining of self. Examples: John Lienhard , University of Houston, author"Inventing Modern: Growing up with X-rays, skyscrapers, and tailfins" and