voltages and currents at the different phasesof the motor and inverter side. Voltages, currents, and temperatures are monitored via sensorsmounted inside the engine.3.5 Industry Guest LecturesThe course includes guest lectures from EV and HEV industries. Exciting topics are usuallyselected to deliver up-to-date technology in this field. Several examples include hybrid systemsused in trucks and buses and important issues in EV/HEV that still need to be worked out byindustry.3.6 Plant TripsDuring the last week of classes, students take a plant visitation trip where they get the chance tosee different activities in this area and hold discussions with research scientists in areas such asDSP, power electronics, batteries, and power systems, all related
experiences vary, they carry higher benefits forthe mentees when they include extended involvement over time, require higher level researchengagement (with data analysis, question posing, and hypothesis development), and provideinstructional supports [6]. The importance of embedding research professional development skillsis also key to maximizing the positive impacts of such experiences on the undergraduate menteesinvolved [7]. Professional development training on topics related to the context of research hasbeen shown to reduce barriers to research involvement and improve confidence in a studentmentee's ability to make contributions to a research team [8].The Informatics Skunkworks program seeks to enable research mentors to engage more studentsin
, technology, engineering, andmathematics (STEM) is growing while the supply is shrinking. Thus, it is imperative that highereducation do their part to properly recruit and retain the students within their programs. Page 24.718.2At Oklahoma State University, retention of students has become a focus within the College ofEngineering, Architecture and Technology. The majority of students leaving our program do soin the first two years of the curriculum, and we have tasked ourselves with investigating why thisoccurs. The first two years of an engineering student’s curriculum is heavily loaded inmathematics, physics, and beginning engineering courses, such
mathematics courses. She received her PhD in Applied Mathematics from Clarkson University. c American Society for Engineering Education, 2020 CoOrdinated Math-Physics Assessment for Student Success(COMPASS) assessments on continuing math courses and attitude toward mathAbstractThe COMPASS: CoOrdinated Math-Physics Assessment for Student Success program aims to im-prove students’ understanding of mathematical concepts using physical applications. COMPASSis a first-year calculus course that combines mathematics concepts with physical applicationsin an effort to improve student understanding of mathematics using their outstanding physicsintuitions. The implementation of the COMPASS program is
& Education, Volume 37 (pp211-224) 2001. 7. T. Ichiko, “Possibilities for Extending Media with a Sense of Immediate Reality in their Applications,” International Conference on Global Issues and Solutions 2003. 8. T. Ichiko, “A Case Study on Highly Cooperative Learning in Distance Education,” Wikinomics 2007-2012. 9. A Program of the California State University http://www.merlot.org/merlot/index.htmProceedings of the 2012 Midwest Section Conference of the American Society for Engineering Education 10. KEEP Social Learning Suite (SLS) by S. Curtis http://keep.curtiscomp.com/ 11
beeffective for increasing student engagement is to place these abstract concepts in a practicalcontext2,3,4,5. This way the students can experience the usefulness of these concepts and canrelate it to the other subjects which they are learning at the same time.With the ultimate goal of having students learn the fundamental mathematical concepts presentedin the initial years of the program, it is helpful to enable the student see and discover how thematerial is relevant to the rest of their engineering curriculum. This can provide an extraincentive for the student to engage with the material at hand. Since the vast majority of studentlearning happens outside of the lecture hall, it is important to create such experiences so thestudent is motivated to
.“Employers have expressed strongly that our graduate students should be betterprepared to relate concepts learned in system modeling and controls courses to realmodeling and control applications”1.Previous roles of the mechanical engineer in industry have been in positions such asmechanical design, component, quality, manufacturing and heating ventilation and airconditioning. These roles have historically required that the mechanical engineer have aspecific skill set.The skill set required of the mechanical engineer has expanded with the increasedutilization of automated data collection methods and manufacturing automation.Additional important skills now include the ability to embed a computational elementinto a mechanical product or process2
Engineering Education Page 6.18.5outside of the context of specific lesson material conveys a sense that the you care about thestudents. This is where data sheets can be helpful, as they can provide some information onstudent interests.In addition, the author recently began playing music at the beginning and end of every class.Music is chosen that relates to the lesson topic of the day, either by choosing a piece of musiccomposed in the same year as some other event (e.g. Ohm’s Law was discovered in the year ofBeethoven’s death) or by some common word (e.g. music by Led Zeppelin for discussing thelead-tin phase diagram). The reason for the choice
Paper ID #6470Co-ops and Interns-What Do They See as Their Communication NeedsMr. Craig J. Gunn, Michigan State University Craig Gunn is the Director of the Communication Program in the Department of Mechanical Engineering at Michigan State University. His duties include the integration of communication skill activity into all courses within the mechanical engineering program, including overseas experiences. He works closely with the Cooperative Engineering Education Division of the College of Engineering to monitor the com- munication skills of students who co-op during their college years. He is currently the editor of
AC 2012-5593: A MANUFACTURING CURRICULUM USING A STUDENT-DRIVEN PEDAGOGY OF INTEGRATED, REINFORCED, ACTIVE LEARN-ING (SPIRAL) APPROACHMr. Andrew Peter Vogt, University of Utah Andrew Peter Vogt is a Ph.D. student in mechanical engineering at the University of Utah. He received his B.S. from the University of Idaho in mechanical engineering. In addition to his Ph.D. research in human related slip studies, he has taught statics and mechanics of materials for the Department of Mechanical Engineering, is working on a University Teaching Assistantship for developing the SPIRAL Manufac- turing Curriculum, and teaches skiing at Snowbird Ski and Summer Resort. Vogt is aspiring to be an educator and is highly interested in
they are just solving the puzzle, but you can explain how it helps to illustrate learning theory. The subject matter may not relate to course material, but learning how to take the inputs, organize the facts and come up with a solution applies to all engineering or technology curriculum. Since the puzzles are not related to the topic material, there is less intimidation to participate19.Getting off to a good start!Set the tone on the first day of class. If the students know that you expect them to actively participatefrom the beginning, they will know what to expect later on. This will help avoid resistance to changelater in the term. We suggest starting the first day of class with some sort of icebreaker game. It
eliminateproblems related to their interaction. Of course, such limits must not cause the system to operatein a manner that the customer finds unacceptable. Load management usually is inexpensive; Page 6.306.6Proceedings of the 2001 American Society for Engineering Education Annual Conference & Exposition CopyrightÓ 2001, American Society for Engineering Educationoften, it is free. However, successrequires a good knowledge of the 30intangible costs of customer’s Percent Voltage Sagslifestyle. 25 A simulation of the system, as
Singapore, in Singapore. He has also done biomedical research during post doctorate research positions at the Uni- versity of Michigan (Ann Arbor, MI), Tohoku University (Sendai, Japan), and Mayo Clinic (Rochester, MN). He has taught classes for and been an advisor on capstone senior design projects for Wentworth students in the programs of electrical engineering, computer engineering, electromechanical engineering, and biomedical engineering. c American Society for Engineering Education, 2017 Using Telecommunication Instructional Modelling System (TIMS) in Communications Systems CourseAbstract:Conventional courses in communications systems use lecture and readings to explain
. Looking atthese publications, a common theme emerges which calls for making these projects relevant toindustry 1. This can be accomplished by greater industry involvement and redesigning thecapstone course to meet the needs of industry. This paper discusses two frameworks underwhich this can be accomplished and presents two research projects that were completed as partof senior design project in the Mechanical Engineering Technology program at Old DominionUniversity.II Industry InvolvementIndustry involvement in senior projects is a key factor for a successful capstone course as identifiedby many authors 1,2. Industry involvement can vary greatly in terms of focus, scope and companysupport. At one end this may involve only financial support
object) and designing (a verb -- the process ofgenerating a new or revised technical object). The individual courses that make up anengineering program (mainly the appropriate engineering sciences and humanities) are usuallytaught in isolation from one another, with little or no cross-referencing. If they refer to design, itis usually as a noun, a description of a small selection of currently successfully operatingsystems that use the relevant phenomena, and only in relation to those individual phenomena.The unifying theme should, according to the patterns of the past decades, be deliverable in theform of a single "capstone" experience of designing. This unification is almost impossible toachieve in this way. The heavy capstone tends to buckle
web-basedlearning modules that are geared toward K-14 grade levels. The paper describes the piloting ofprototype web-based educational materials for students in grade 4 (electricity) and lower levelundergraduate courses (engineering) – in an attempt to inspire students to pursue a science orengineering degree program. The initial pilot testing and assessment efforts of the project arepresented in conjunction with our intent to help K-12 students and teachers meet the rigorousNYS science standards.MotivationU.S. students are typically exposed to the use of computers in the K-12 classroom or mediacenters, yet rarely link their use of technology in school with how they use computers at home.They now have greater opportunities to garner knowledge
bothmake it through the tenure and promotion process. The third challenge is to have advancementopportunities. Along the way, the couple has to work together to develop a work/life balanceplan to provide an environment for each person within the pair to thrive toward his/her careergoals and personal goals. Besides balancing the day-to-day activities of a functioninghousehold, couples must agree on timing for or if they will start a family and advancementopportunities for each.This paper and presentation will discuss our experiences over the last fifteen years related towork/life balance for a dual career engineering faculty couple. We will discuss the variousphases of our careers and different “give and take” situations at those times. We will
AC 2012-4878: BLURRING THE LINES: THE INTERSECTION OF MO-BILE AND EMBEDDED SYSTEMS AND INFORMATION TECHNOLOGYDr. Richard G. Helps, Brigham Young University Richard Helps’ research interests are in embedded systems, human-computer interaction, and technical course design for rapidly-changing technologies. He is a member of ASEE, IEEE (IEEE-CS), ACM, and SIGITE. He has been involved in ABET accreditation as a Commissioner and Program Evaluator and continues his involvement in SIGITE in developing and promoting IT programs. Page 25.266.1 c American Society for Engineering Education, 2012
Paper ID #7365Collaborative Research: Center for Mobile Hands-On STEMProf. Kenneth A Connor, Rensselaer Polytechnic Institute Kenneth Connor is a professor in the Department of Electrical, Computer, and Systems Engineering where he teaches courses on plasma physics, electromagnetics, electronics and instrumentation, electric power, and general engineering. His research involves plasma physics, electromagnetics, photonics, engineering education, diversity in the engineering workforce, and technology enhanced learning. Since joining the Rensselaer faculty in 1974, he has been continuously involved in research programs at
entrepreneurship courses because of their subject matter expertise in their basedisciplines. Because the course must also deliver some of the topics associated with theintroductory course in that subject area, e.g. the finance section must address issues related tointernational money markets that have limited applicability to the entrepreneurial context; it doesnot have the same depth as the single courses in an entrepreneurship major. Page 9.191.3 “Proceedings of the 2004 American Society for Engineering Education Annual Conference & Exposition Copyright © 2004, American Society for Engineering Education
. American c Society for Engineering Education, 2021 Continuous assessment method using scientific articles as study material for distance learningIntroductionIn recent years, the Finnish engineering education has undergone a rapid transformation fromtraditional classroom-based teaching toward online learning. The primary driver for this has beenthe increasing demand for distance learning graduate programs. The course “ElectromagneticCompatibility in Power Electronics” was changed to an online course for the 2018–2019academic year to meet the demand created by a new study program for distance learninggraduate students. Hence, new teaching and assessment methods were needed to
complicating the training of the next generations of engineers who will shapethe future of the global economy. In particular, a topic of immediate concern is the security ofembedded systems. Embedded systems are ubiquitous and are found in medical devices, nuclearplants, and chemical processing systems to name a few applications. The ever-increasingcomplexity of modern embedded systems has raised the potential for security breaches that maycompromise the integrity and functions of these products. Although embedded systems design hasbeen a core curriculum in most electrical and computer engineering programs, incorporatingsecurity-training skills at the undergraduate level remains challenging. Despite the enormity ofsecurity challenges, they are often
American Society for Engineering Education Annual Conference & Exposition Copyright © 2002, American Society for Engineering Educationwith given timing constraints. The timing constraints required the students to prepare SA/RTcontrol specifications that governed the programming of the C31’s interrupt and timer facilities.The fourth assignment used a variant of the algorithm from the first assignment (e.g., DPCMcoding and decoding) in a real-time application that used both IIR and FIR filtering. The fifthassignment required students to implement FFT-based convolution and compare itscomputational complexity to that of standard linear convolution.Students (working in groups of two or three) were directed to begin each
. Under his term as the International Division Program Chair the international division expanded, broadened in topics, and the number of sessions increased from a few technical sessions to over eighteen sessions in the recent years. The ASEE International Division by votes, has recognized Nick’s years of service through several awards over the past years. Nick has been the recipient of multiple Service awards (examples: 2013, 2010, 2006, 2004, 1996), Global Engineering Educators award (example: 2007, 2005), Best Paper award (examples: 2016, 2010, 2005, 2004, 1995) and other awards from the International Division for exceptional contribu- tion to the international division of the American Society for Engineering
AC 2009-992: ENHANCEMENT OF STUDENT LEARNING IN EXPERIMENTALDESIGN USING VIRTUAL LABORATORIESMilo Koretsky, Oregon State University Milo Koretsky is an Associate Professor of Chemical Engineering at Oregon State University. He currently has research activity in areas related to thin film materials processing and engineering education. He is interested in integrating technology into effective educational practices and in promoting the use of higher level cognitive skills in engineering problem solving. Dr. Koretsky is a six-time Intel Faculty Fellow and has won awards for his work in engineering education at the university and national levels.Christine Kelly, Oregon State University
Engineering Education Annual Conference & Exposition Copyright © 2005, American Society for Engineering Education C. Current degree program (select one) o Masters o Doctoral o Other D. Nation of Origin o United States o OtherII. In relation to each other, how important are research and undergraduate teaching … teaching research most of equal most important importance important1. To you personally?2. To the faculty in your department?3
AC 2012-4791: THE IMPACT OF A PROTOTYPE EXEMPLAR ON DE-SIGN CREATIVITY: A CASE STUDY IN NOVICE DESIGNERSDr. Thomas F. Schubert Jr. P.E., University of San Diego Thomas F. Schubert, Jr., received his B.S., M.S., and Ph.D. degrees in electrical engineering from the University of California, Irvine, Irvine, Calif. He is currently a professor of electrical engineering at the University of San Diego, San Diego, Calif., and came there as a founding member of the engineering faculty in 1987, where he served as Director of Engineering Programs, 1997-2003. He previously served on the electrical engineering faculty at the University of Portland, Portland, Ore., and Portland State University, Portland, Ore., and on the
Session 2220 A Java-based Computer Simulator and its Applications John K. Estell Bluffton CollegeAbstractThis paper describes a learning philosophy for computer science that is based on having studentswrite a simulation of a computer system, then adding features to the initial simulation that areappropriate for learning concepts being presented in a particular course. In the past the authorhas successfully utilized this method in teaching concepts related to CPU processor scheduling inan operating systems course1; however, as the simulation was written in a
“alternateconceptions”).1 The topic has garnered considerable interest among engineeringeducators over the past few years and several concept inventories on engineering-relatedtopics are being developed, most notably by the group led by Evans associated with theFoundation Coalition.2 The goal of our project, funded by the Assessment of StudentAchievement (ASA) program at NSF, is to develop and test an inventory for the thermaland transport sciences, based on the model of the Force Concept Inventory pioneered byHestenes and colleagues.3 Once our CI has been developed and validated, it will be madeavailable to interested engineering faculty for use as a classroom formative assessmenttool that can provide valuable information for tracking student understanding
vehicle legacies can lead to significant proprietary analysis resources.Weight engineering is also problematic because it has the capability to sell an aircraft on thegrounds of meeting operational and/or cost-to-weight requirements. A program contract can bewon based on whether or not a vehicle’s configuration (structural & system design and operation) is affordable and meets or exceeds customer expectations. Small Educational InvestmentA third problem is a lack of educational investment in mass properties. This is oftenovershadowed by more exciting or fashionable technology development fields outside of massproperties analysis. Weight engineering has always been a small field of study. It now risksbecoming a