in its nature. Power electronics design, modeling and analysis include circuit theory,electromagnetics, semiconductor devices, microprocessors, signal processing, control, simulation, heattransfer, electromagnetic compatibility and even artificial intelligence. The classical instruction approachis based on lectures and laboratories assisted by teachers. However, power electronics teaching is not aneasy task, due to subject complexity, difficulties and student motivation. A natural and efficient way ofteaching power electronics is the problem-oriented and project-based learning (PBL) approach. PBL, as aproblem-centered teaching motivates students to learn actively, bringing real professional world andrequirements closer to the student, is
Education, 2019 Exploiting Digital Twin Technology to Teach Engineering Fundamentals and Afford Real-World Learning Opportunities University of Southern CaliforniaAbstractThis paper presents an innovative instructional approach that capitalizes on digitaltwin technology to transform traditional lectures into “learning-by doing”experiences in the course laboratory. In this paper, we address how the use ofdigital twin technology in laboratory simulation environments affords studentsauthentic learning experiences, i.e., experiences that reflect what a learner isexpected to encounter in the real-world. The immediate feedback feature, enabledby the connection of the digital twin to the physical twin, provides
research assistant at the Institute of Physical Chemistry, TU Berlin. He finished his doc- toral thesis in physics in 2011. Dr. Schmitt holds a series of scientific awards, the Chorafas award for extraordinary scientific results (2009), the Stifterverband Fellowship for excellence in teaching (2015) and the award for excellent teaching at TU Berlin (2018). 80 research papers, 2 patents, 1 book and 200 partially invited talks on international conferences summarize his results in photosynthesis research, en- vironmental spectroscopy, and didactic research. Dr. Schmitt educates students for more than 16 years. From 2002-2005 he was tutor in the project laboratory of physics, from 2005-2010 he supervised the advanced
is reached.The second shortcoming is that labs are limited to three-hour-long experiments conducted in astrictly controlled environment due to safety concerns, leaving little room for exploration andindependent trial-and-error.One attractive complement to the lecture/lab approach is simulations. Simulation software allowsstudents to operate realistic power electronics circuits on their own time, and hence gain a morethorough understanding of the concepts they are exposed to in lectures at their own pace.There have been multiple reports of simulations being successfully used to augment teaching inengineering courses. Butterfield and coworkers developed browser-based simulations for a first-year-level chemical engineering laboratory course
for whom this program would betransformative in their personal lives and academic careers. These students are generallyidentified early in high school (if not in middle school) as high-potential scholars for whomaccess to opportunities like this STEM program are not common in their own school orcommunity centers. Effectively, the academic and social characteristics of each section aredesigned through this admissions process.Section instructors are asked to recruit teaching assistants for their projects with a target of oneTA per 4-5 high school students where classes ranges in size between 16 and 25. This class sizeis dependent on room size and/or laboratory capacity. These TA’s are drawn almost entirelyfrom the undergraduate engineering
Paper ID #24681Who is Going to Teach the Skills Needed by the IoT Field Technician?Prof. Gary J. Mullett, Springfield Technical Community College Gary J. Mullett, a Professor of Electronics Technology and Co-Department Chair, presently teaches in the Electronics Group at Springfield Technical Community College (STCC) located in Springfield, MA. A long time faculty member and consultant to local business and industry, Mullett has provided leadership and initiated numerous curriculum reforms as either the Chair or Co-Department Chair of the four tech- nology degree programs that constitute the Electronics Group. Since the
, risk, reliability, and vulnerabilityin critical infrastructures with applications to diverse fields ranging from the military to industry. His pub-lications appeared in several ranking journals including the IEEE Systems Journal, and the Computers& Industrial Engineering Journal. His total awarded projects exceed $ 4.2 M including National ScienceFoundation (NSF), Department of Defense (DOD), Industry, and other Research Laboratories. c American Society for Engineering Education, 2019 Understanding the Effectiveness of Using Virtual Reality to Support Teaching Drilling Trajectory ConceptsAbstractAs technology in the classroom gains popularity, the interest in virtual reality (VR) in
Engineering and Computer Engineering. He is Founding General Chair of the IEEE International Electro Information Technology Conferences. Hossein served as 2002/2003 ASEE ECE Division Chair. He was IEEE Education Society Membership Development Chair and now serves as MGA Vice President (2013/2014) and Van Valkenburg Early Career Teaching Award Chair. Dr. Mousavinezhad received Michigan State University ECE Department’s Distinguished Alumni Award, May 2009. He is recipient of ASEE ECE Division’s 2007 Meritorious Service Award, ASEE/NCS Distinguished Service Award, April 6, 2002, for significant and sustained leadership. In 1994 he received ASEE Zone II Outstanding Campus Representative Award. He is also a Senior Member of
and faculty in institutions of higher education. c American Society for Engineering Education, 2019 Teaching and Assessment of Innovation and Creativity in Civil Engineering: Why? How? Now!AbstractThe goal of this paper is to inspire and equip civil engineering educators to integrate creativity andinnovation in their teaching practices. Among the six strategic goal statements adopted by theASCE Board of Direction is “Civil Engineers develop and apply innovative, state-of-the-artpractices and technologies.” Engineering education should set the stage for these skills andmindsets. In the recent activity to update the Civil Engineering Body of Knowledge (CEBOK3),creativity and
coursesincluded in the cyberphysical-systems certificate is a digital hardware design course. The focus ofthe digital hardware design course is to teach the usage and implementation of digital systems andalgorithms onto field-programmable gate arrays (FPGAs); semiconductor devices containing amatrix of reconfigurable logic blocks connected together that can be reprogrammed to any desiredfunction post-manufacturing. This course has been taught, until recently, in a traditionallecture-based manner with periodic hands-on projects and laboratory exercises. The course wasrecently flipped [1], featuring many new active-learning techniques and overhauled laboratoryexercises. To satisfy the new cyberphysical systems security certificate requirements
setting [7]. A kernel tracing tool has beenused in explaining the concepts in the GNU/Linux Operating System. The target is not really anRTOS, however, the method reveals that understanding the internal mechanism is the key tounderstand any operating system [8]. A focus on the networking aspect of the RTOS kernel wasexplained by teaching the CAN bus. The emphasis was to make clear the networking part of theRTOS [9]. Laboratories were developed for teaching RTOS. For example, a virtual machineenvironment was introduced to reduce the setup time [10]. A commercial grade open sourceRTOS, FreeRTOS, was taught to show the deployment of RTOS. The emphasis was on using theFreeRTOS but not designing an RTOS [11]. The approach in [11] is a “top-down
editorial board member for the Journal of Advanced Academics and Gifted Child Quarterly. c American Society for Engineering Education, 2019Work in Progress: Integrating Differentiated Instruction and Project-BasedLearning to Teach Embedded SystemsAbstractEmbedded systems, smart electronics, and the Internet of Things (IoT) are topics that arerapidly evolving, not just in research and development laboratories, but in the real worldof industrial and consumer products. Because of the fast pace of technological progress,the evolution of standards, and the non-stop growth in the application space, it isimpossible to teach our students everything that they need to master. How then, can webest prepare students with a
centre of excellence). He is called upon regularly for advice by government laboratories, universities, and corporations. He has an interest in e-learning, and he likes to ride bicycles and travel! c American Society for Engineering Education, 2019 A Continual Improvement Process for Teaching Leadership and Innovation Within a Community of Practice Marnie V. Jamieson and John M. Shaw Department of Chemical and Materials Engineering, University of Alberta mvjamies@ualberta.ca and jmshaw@ualberta.ca AbstractInnovation, teamwork, leadership, lifelong learning, and sustainable design are key teachingand learning deliverables for capstone
Paper ID #26832Board 59: Coevolutionary-Aided Teaching: Leveraging the Links BetweenCoevolutionary and Educational DynamicsDr. Alessio Gaspar, University of South Florida Dr. Alessio Gaspar is an Associate Professor with the University of South Florida’s Department of Com- puter Science & Engineering and director of the USF Computing Education Research & Evolutionary Algorithm Laboratory. He received his Ph.D. in computer science in 2000 from the University of Nice Sophia-Antipolis (France). Before joining USF, he worked as visiting professor at the ESSI polytechnic and EIVL engineering schools (France) then as
. Borges is treasurer and co-chair of the Northeastern Association for Science Teacher Education (NE-ASTE) where faculty, researchers, and educators inform STEM teaching and learning and inform policy.Dr. Vikram Kapila, NYU Tandon School of Engineering Vikram Kapila is a Professor of Mechanical Engineering at NYU Tandon School of Engineering (NYU Tandon), where he directs a Mechatronics, Controls, and Robotics Laboratory, a Research Experience for Teachers Site in Mechatronics and Entrepreneurship, a DR K-12 research project, and an ITEST re- search project, all funded by NSF. He has held visiting positions with the Air Force Research Laboratories in Dayton, OH. His research interests include K-12 STEM education
Paper ID #26511Challenges in Teaching Ideal Flows to ME Students Concurrently with SeniorDesignDr. Amitabha Ghosh, Rochester Institute of Technology Dr. Amitabha Ghosh is a licensed Professional Engineer with a Ph.D. in general engineering composite (Major: Aerospace Engineering) from Mississippi State University. He obtained his B.Tech. and M.Tech. degrees in Aeronautical Engineering from Indian Institute of Technology, Kanpur. He is a professor of Mechanical Engineering at Rochester Institute of Technology. His primary teaching responsibilities are in the areas of fluid mechanics and aerodynamics. He is also a
Paper ID #25605Sociotechnical Habits of Mind: Initial Survey Results and their FormativeImpact on Sociotechnical Teaching and LearningDr. Kathryn Johnson, Colorado School of Mines Kathryn Johnson is an Associate Professor at the Colorado School of Mines in the Department of Elec- trical Engineering and Computer Science and is Jointly Appointed at the National Renewable Energy Laboratory’s National Wind Technology Center. She has researched wind turbine control systems since 2002, with numerous projects related to reducing turbine loads and increasing energy capture. She has applied experiential learning techniques in
working on the homework exercises. Promote lifelong learning – One part of the first Basic PLC laboratory exercise – construct the logic to make two lamps to alternately flash at a given period – requires the student groups to think. No solution is given to them and it is not covered in the prior course lectures, though the lab teaching assistant will help them to figure out the solution. In addition, at the end of each laboratory exercise, the students ask a series of reflection questions to help them evaluate their performance and what they could do better.All of these courses were initiated in response to industry demand. In the 1980’s, AT&Tsponsored a project to develop manufacturing-related courses
and addressed student difficulties in ways that areeffective and generally enjoyed by the students. Additionally, an active learning workshop in thesummer of 2018 motivated me to use more involved active-learning techniques, including theflipped classroom and inductive learning. Consequently, I flipped the last two modules of anelectronic design laboratory in the summer as well as a signal processing lab in the fall of 2018.The effectiveness of these advanced techniques was formally assessed by comparing student workbefore and after the implementations, and these preliminary results will be discussed. Surveys andinterviews were used to measure student perceptions of the teaching techniques, and these resultswill also be discussed, with
Benson, Andrew Danowitz, Paul Hummel, and Joseph Callenes-Sloan Electrical and Computer Engineering, Cal Poly San Luis ObispoAbstractMany undergraduate engineering courses include laboratory work where students are asked towork in pairs or groups to complete assignments. Group work can offer many benefits includingimproved communication and team work skills, appreciation and respect for others, and evenincreased individual performance. However, group work may also present drawbacks includingostracism, unequal work distribution (some group members not ‘pulling their own weight’) anddecreased individual performance. When creating groups, instructors are faced with decidingwhether to allow students to form their own groups or to
Paper ID #25700Integrating Comics Into Engineering Education To Promote Student Inter-est, Confidence, and UnderstandingDr. Lucas James Landherr, Northeastern University Dr. Lucas Landherr is an associate teaching professor in the Department of Chemical Engineering at Northeastern University, conducting research in engineering education. c American Society for Engineering Education, 2019 Integrating Comics Into Engineering Education To Promote Student Interest, Confidence, and UnderstandingAbstractThe use of comics as an educational teaching tool is a practice that has existed for
Architectures, and Low Power and Reliability-Aware VLSI circuits. He has also been a Graduate Teaching Assistant (GTA) for Department of Electrical Engineering and Computer Science of UCF from 2014 to 2018. His educational interests are innovations and laboratory-based instructions, technology-enabled learning, and feedback driven grading approaches. He is the recipient of the Award of Excellence by a GTA for the academic year of 2015-2016 at UCF.Dr. Ramtin Zand, University of Central Florida Ramtin Zand received B.Sc. degree in Electrical Engineering in 2010 from IKIU, Iran. He received his M.Sc. degree in Digital Electronics from Sharif University of Technology, Tehran, Iran, in 2012. He is a Ph.D. Candidate in
sessions), and Enthusiasm (forteaching and/or for the content of the lesson). These behaviors are discussed in more detail next.EffortA strong majority (73% overall, 79% of male students, 64% of female students) describedinstances during which their TA devoted noticeable effort, or lack of effort, to their teaching role.Many students said that when they could tell that their TA put effort into teaching a class,whether a recitation or a laboratory, they felt more motivated to reciprocate by also putting ineffort. Jonathan described this synergy between student and TAs: It helps to see a TA or professor caring about their subject, because it implies that they care that the students are trying to learn the subject, and that they are doing
Proceedings, Austin, TX, 2009.[13] L. Head, “Signals, Systems, and Music: General Education for an IntegratedCurriculum,” ASEE Annual Conference Proceedings, Vancouver, BC, 2011.[14] A. Sathyanarayanan Rao, J. Fan, C. Brame, B. Landman, “Improving ConceptualUnderstanding of Signals and Systems in Undergraduate Engineering Students UsingCollaborative In-Class Laboratory Exercises,” ASEE Annual Conference Proceedings,Indianapolis, IN, 2014.[15] B. Verdin, R. Von Borries, P. Nava, A. Butler, “An Experiment to Enhance Signalsand Systems Learning by Using Technology Based Teaching Strategies,” ASEE AnnualConference Proceedings, Indianapolis, IN, 2014.[16] B. Ferri, A. Ferri, K. Connor, “BYOE: Mobile Experiment for Signals and Systems– Analysis of a Guitar
: Learning and Retention Benefits in Introductory Psychology," Teaching of Psychology, vol. 41, no. 4, pp. 303-308, 2014.[14] D.-p. Cao and X.-y. Yin, "The BOPPPS Teaching Mode in Canada and Its Implications for Higher Education Reform," Research and Exploration in Laboratory, vol. 2, no. 49, 2016.[15] T. A. Angelo and K. P. Cross, Classroom assessment techniques: A handbookfor college teachers. Jossey-Bass Publisher, 1993.[16] B. K. Morris and S. Savadatti, "Analysis of Basic Video Metrics in a Flipped Statics Course," presented at the 2018 ASEE Annual Conference & Exposition, Salt Lake City, Utah, 2018.
, embedded quiz questionsthroughout the videos. Questions are drawn randomly from a quiz bank where possible to avoidacademic misconduct issues.Students are given the opportunity to integrate domain knowledge and creative problem-solvingskills during their interactive laboratory sessions. This course component was designed around astudio format that allows students to work collaboratively while seeking personalized feedback[7], [8]. Instructors and teaching assistants coach students through weekly assignments inpreparation for a larger design-based project. The final design task encompasses technical andcreative aspects that provide students with some autonomy and flexibility as they implement therequired technical elements.MethodologyThis research
Paper ID #26429Work in Progress: Improving Critical Thinking and Technical Understand-ing as Measured in Technical Writing by Means of I-depth Oral Discussionin a Large Laboratory ClassDr. Mechteld Veltman Hillsley, Pennsylvania State University, University Park Dr. Hillsley is an Associate Teaching Professor in the Department of Chemical Engineering at Pennsylva- nia State University. She received a BS in Chemical Engineering from Virginia Tech in 1988 and an MS and PhD from Penn State in 1990 and 1994, respectively. Dr. Hillsley spent approximately 10 years doing research at Penn State on fluid shear stress effects on
teaching. Cassie received a B.A. in Engineering Sciences at Wartburg College (Waverly, IA).Nicole Erin Friend, University of Michigan Nicole Friend is currently a PhD student in the Biomedical Engineering program at the University of Michigan. She received her B.S in Bioengineering: Biosystems from the University of California, San Diego in 2017. Nicole’s research interests are centered around regenerating vasculature in ischemic envi- ronments. Nicole is also interested in more broadly defining the field of tissue engineering and regenera- tive medicine to inform curriculum design and student career trajectories.Dr. Aileen Huang-Saad, University of Michigan Aileen is faculty in Engineering Education and Biomedical
Paper ID #26093Creating a Learning Environment that Engages Engineering Students in theClassroom via Communication StrategiesDr. Eleazar Marquez, Rice University Eleazar Marquez is an Assistant Teaching Professor in the Department of Mechanical Engineering at Rice University.Dr. Samuel Garcia Jr., Texas State University Dr. Samuel Garc´ıa Jr. currently serves as Educator Professional Development Specialist at the Jet Propul- sion Laboratory in Pasadena, CA and is an Assistant Professor of Practice for the LBJ Institute for Edu- cation and Research at Texas State University. c American Society
University of Applied Sciences in Groningen, where he taught both in Dutch and in English. During this time his primary teaching and course develop- ment responsibilities were wide-ranging, but included running the Unit Operations laboratory, introducing Aspen Plus software to the curriculum, and developing a course for a new M.S. program on Renewable Energy (EUREC). In conjunction with his teaching appointment, he supervised dozens of internships (a part of the curriculum at the Hanze), and a number of undergraduate research projects with the Energy Knowledge Center (EKC) as well as a master’s thesis. In 2016, Dr. Barankin returned to the US to teach at the Colorado School of Mines. His primary teaching and course