Paper ID #36837Using Machine Learning to Assess Breadboardia: a Technical StorybookSr. Libby (Elizabeth) Osgood, University of Prince Edward Island Libby Osgood is an Assistant Professor of Sustainable Design Engineering at the University of Prince Edward Island in Canada, where she teaches design, engineering mechanics, and is the coordinator of the Engineering Success Centre. She is a religious sister with the Congregation of Notre Dame. Her research interests include active learning pedagogy, service learning, social justice, faith and science, and Teilhard de Chardin.Nadja BressanAiden Hender McBurney
methods, neural network, and deep/machine learning for adeno-associated virus and liposome characterization. In 2020, he was awarded the best Research Assistant award by the School of Mechanical and Materials Engineering at Washington State University. Khan plans to pursue a teaching career upon earning his Ph.D.Olivia Reynolds (Graduate Student) Olivia received her PhD in chemical engineering from Washington State University in 2022. Her research is focused on the development and assessment of low-cost, hands-on learning tools for fluid mechanics and heat transfer. She plans to remain at Washington State University where she will teach the first-year engineering courses and develop the first-year engineering
it could demandstudents understand the fundamentals while concepts with greater complexity would allowstudents to use the reference data card along with a student-provided note sheet. This would seekto help channel the desired learning reflection and review process that stems from the creation ofsuch a note sheet. Then, in the spirit of assessing the real-world environment as would be donewith “open-everything” assessments, a design project and two laboratory analyses wouldauthorize use of the textbook, notes, internet, and collaboration with others, to form a trulyrealistic engineering environment sought by this approach. In addition to this theory, instructor experience teaching various engineering coursesacross the department
., & Rosa, A. J. (2005). The role of the laboratory in undergraduate engineering education. Journal of Engineering Education 94(1): 121–130. 5. National Research Council, Center for Science, Mathematics, and Engineering Education, “Inquiry and the National Science Education Standards: A Guide for Teaching and Learning”, http://www.nap.edu/openbook.php?record_id=9596&page=R1. 6. Bransford, J. D., Brown, A. L., & Cocking, R. R. (Eds.) (2002). How people learn: Brain, mind, experience and school. Com- mission on Behavioral and Social Science and Education, National Research Council. Washington: National Academy Press. 7. Lyon, G. H., Jafri, J., & St. Louis, K. (2012). Beyond the pipeline: STEM pathways for
Paper ID #35299Using MUTISIM software to reinforce superposition analysis techniquefor electrical circuitsDr. Cyrus K Hagigat, The University of Toledo Dr. Hagigat is an associate professor in the Engineering Technology department of the College of Engi- neering of the University of Toledo. Dr. Hagigat has an extensive industrial background, and his teaching technique is based on practical aspects of engineering. American c Society for Engineering Education, 2021 Using MULTISIM software to reinforce superposition analysis technique
, and senior colleges2-7. But most of these studies areSpring 2017 Mid-Atlantic ASEE Conference, April 7-8, 2017 MSUonly based on a single topic or area. These studies have yielded positive results on group basedteaching. This success has been attributed mostly to the increased peer interaction and activeparticipation during the lessons. On the other hand, there is considerable evidence collected byresearchers in physics teaching and learning that traditional instructional methods - largelylecture and problem solving - are not effective in promoting conceptual learning in physics.There is also widespread evidence that active learning methods enhance the conceptualknowledge of students8-10. In this paper we investigate the impact of cooperative
geometry building through the solution process, topost processing and final output. FLUENT's performance has been tried and proven on a variety ofmulti-platform clusters. At the undergraduate level, we believe that FLUENT can be integrated intothe current mainstream fluid mechanics through examples of fluid mechanics problems solvingtechniques. Although a degree of uncertainty exists using the software as opposed to actual real-world analysis of the fluid mechanics process, the increased experience in using computationalsoftware allows the student to model the real world phenomena both graphically and analytically. Inthis paper, we will share some experiences and views on teaching and learning fluid mechanicscourse
Domestic Undergraduate Engineering Students," in 2011 ASEE Annual Conference & Exposition, Vancouver, BC, 2011.[2] C. Ciocanel and M. Elahinia, "Teaching Engineering Laboratories Based On A Problem Solving Approach," in Proceedings of the 2008 ASEE Pacific Southwest Annual Conference, 2008.
ECE Concepts Aaron Carpenter carpentera1@wit.edu Department of Electrical Engineering & Technology Wentworth Institute of Technology Abstract Cybersecurity’s increasing relevance and applicability in the research and developmentcommunity and job market make it an attractive topic for both students and faculty. Thus, it isnecessary for institutions of higher learning to provide courses that prepare students for thebroad security-based design space. In addition to teaching students about critical securityconcepts, hardware-based cybersecurity projects and courses sit at the intersection of manyelectrical and computer
Paper ID #23851Redesign of an Introduction to Mechanical Engineering Course to Keep Stu-dents Engaged and InterestedDr. Olivier Putzeys P.E., University of Maine Olivier Putzeys is a Lecturer in the Department of Mechanical Engineering at the University of Maine. Prior to UMaine, he was an Assistant Teaching Professor in the Department of Chemical and Biological Engineering at Montana State University. Dr. Putzeys worked at Exponent, Inc., a failure analysis con- sulting firm, for five years following his graduate studies in Mechanical Engineering at the University of California, Berkeley, which followed his
Paper ID #25992Board 57: Identifying and Disseminating Transformative Professional Devel-opment of STEM Undergraduates Who Perform Outreach: Progress in Year1Mr. Michael Alley, Pennsylvania State University, University Park Michael Alley is an associate professor of teaching in the College of Engineering at Pennsylvania State University. He is the author of The Craft of Scientific Writing (Springer, 2018) and The Craft of Scientific Presentations (Springer-Verlag, 2013). He is also founder of the popular websites Writing Guidelines for Engineering and Science (www.craftofscientificwriting.com) and the Assertion-Evidence
Projects. He is currently taking manual and CNC classes at Laney Community College in Machine Tool technology. Mr. Steffan Long: Mr. Steffan Long is the head machinist at the California State University Maritime. He received his BA in Liberal Arts from the University California Santa Cruz. He teaches intro and advanced courses in machining as well as supervises the manufacturing of the ME Senior Design Projects. Mr. Adam Link: Mr. Adam Link is a senior in Mechanical Engineering at the California State University Maritime. Mr. Sean McPherson: Mr. Sean McPherson is a senior in Mechanical Engineering at the California State University Maritime. Mr. Scott Wettstein: Mr. Scott Wettstein is a senior in
Center reaches national and international audiences with the support of federal, state, corporate, foundation, and private funds. Dr. Burgstahler is an affiliate professor in the College of Education at the University of Washington in Seattle. Her teaching and research focus on the successful transition of students with dis- abilities to college and careers and on the application of universal design to technology, learning activities, physical spaces, and student services. Her current projects include the Alliance for Students with Disabil- ities in Science, Technology, Engineering, and Mathematics (AccessSTEM), the Alliance for Access to Computing Careers (AccessComputing), the RDE Collaborative Dissemination project
), continuous improvement, constituent buy-in – ** Laboratory experiences, teamwork, capstone design, placement services Risk of same program: If online path fails, original program fails with it Risk of separate program: Potential low enrollment prior to accreditationFULTON schools of engineering electrical, computer and energy engineering Disruptive changeNow:Full tuition4 yearsIncludes part-time employees!49 online undergraduate programs2000 enrolledBy 2025:Potential for 25,000 studentsStarbucks to invest up to $250M FULTON schools of engineering electrical, computer and energy engineering One online approach Exam
of whichneeds special mention. I would like to thank Dr. Edward J. Berger, Associate professor ofEngineering Education at Purdue University, for lending his equipment for data collection. I alsowant to thank Dr. Idalis Villanueva, Assistant professor of Engineering Education at Utah StateUniversity for providing advice on collecting and interpreting EDA data. Finally, I want to thankmy adviser, Dr. Michael Loui, Dale and Suzi Gallagher Professor in Engineering Education, forproviding financial support for this project through his discretionary funds.References[1] W. Sun and X. Sun, “Teaching computer programming skills to engineering and technology students with a modular programming strategy,” presented at the 2011 ASEE
difficult for them to understand these concepts.MET students tend to learn by doing. Students with this learning style benefit from theoreticalcoursework that is heavily reinforced with hands-on laboratory experiences. Although there areseveral lab components in these courses, they do not always address the core concepts that thestudents are struggling with. Classroom exercises are developed to help students betterunderstand certain important concepts in thermal-fluid sciences. This paper presents thedevelopment of classroom exercises for the pressure of fluid. Pressure of fluid is the mostimportant concept in fluid power course for mechanical engineering technology students. It isvery difficult for students to understand that the pressure of the
Page 12.1457.3engineering mechanics, failure mechanisms, an introduction to material science and combinedloading. This course is significantly different from the traditional introductory mechanics coursethat had been taught in the past; in fact, the course was being offered for the first time in its’ newformat during the semester in question. Further, since the course was being given to a singlestudent studying at St Cyr in France, the instructor (Dr Klosky) saw little purpose in involvingthe entire institution in the decision process or the design of the course, and obtained directapproval from the department head to conduct what everyone saw as a teaching experiment orproof of concept.The first key decision was “What is the objective of the
Aerospace Engi- neering at San Jos´e State University since 1994. Prior to coming to SJSU, he worked at IBM in San Jos´e in the development of disk drive actuators and spindle motors. He has also worked as a consultant in the optomechanical and laboratory automation industries. His areas of teaching and research are primarily focused in mechatronics, precision machine design, engineering measurements, and programming. He was one of the faculty members who redesigned the E10 Introduction to Engineering course in 2007.Prof. Ping Hsu, San Jose State University Dr. Ping Hsu graduated from University of California, Berkeley in 1988 with a Ph.D. in Electrical En- gineering. After graduation, he joined the Department of
feedback.Bibliography 1. website http://www.incontext.indiana.edu/2009/mar-apr/article1.asp Page 15.852.9 AuthorDr Bert Pariser is a faculty member in the Electronic Engineering Technology and the ComputerSoftware Technology Departments at Technical Career Institutes. His primary responsibility isdeveloping curriculum and teaching methodology for Physics, Thermodynamics,Electromagnetic Field Theory, Computers and Databases. Bert prepared grant proposals to theNational Science Foundation, which produced the funding for a Fiber Optics Laboratory. Heserved as faculty advisor to the IEEE and faculty advisor to Tau Alpha Pi National HonorSociety. Bert was
and programs. A discipline-specific approach to communications instruction hasbecome a reality in many colleges of engineering. Several examples follow:Virginia Tech:3,4 The Department of Mechanical Engineering, with over 1000 undergraduates,250 graduate students, and 40 faculty has a faculty specialist in technical communications. Thisfaculty member does not teach a specific undergraduate course, but participates in undergraduatelaboratory and design courses. The laboratory courses require either short laboratory reports orboth formal written and oral reports. This faculty member also teaches graduate workshops thatemphasize presentations (thesis defenses and conferences) and writing skills (theses and journalarticles).Georgia Tech:5 The
efficient use of memory, and often operate at low power levels. This paper describes our approach to teaching operat- ing system concepts in an embedded computing course, including some important aspects of embedded operating systems as well as lectures and labs we developed using Windows CE as an example embedded operating system.1 IntroductionEmbedded computing systems must often perform multiple complex tasks that require the media-tion of an operating system. Operating systems are complex objects that programmers and systemdesigners rely on to perform many functions. When designing embedded systems, the operatingsystem plays a somewhat different role and system designers
manufacturers want to be more flexible, whereas aerospace industrywants to hog out parts at a faster pace3.As educators we may not need the large table travel that some of the industrial machines providebut we need to be able to teach the technical know-how of modern manufacturing methodsavailable on the market today2. Additionally, “learning the latest technologies in machine tooloperation requires hands-on training one can only get by actually using today’s modernmachines5.” Page 6.464.1“Proceedings of the 2001 American Society for Engineering Education Annual Conference & Exposition CopyrightÓ 2001, American Society for Engineering
(portrayed by faculty)that they have studied their projects thoroughly and should be awarded the construction contract.Capstone Course After required freshman and sophomore “core” courses, the Air Force Academy’s civiland environmental engineering curricula begin with a hands-on “Field Engineering andReadiness Laboratory” (FERL) course between the sophomore and junior years. During thisthree-week course students complete 22 hands-on construction activities under the supervision offaculty and Air Force construction craftsmen. A sampling of the activities includes wood-frameconstruction, heavy equipment operation, concrete placement, and asphalt paving, as shown inFigure 2. Each activity integrates with one or more later major’s courses and
Session 1433 Present Status of Solar Energy Education D. Yogi Goswami Solar Energy and Energy Conversion Laboratory, Dept. Mechanical Engineering, University of Florida, POB 116300, Gainesville, FL 32611-6300 USA Tel: 352/392-0812; Fax: 352/392-1071 Email: solar@cimar.me.ufl.eduAbstractThis paper briefly describes the history and status of solar energy education. The energyawareness in the early 1970s led to a concerted research and development effort in solarenergy applications. Solar energy education followed these efforts at the advanced collegelevel. However, R&D slowed
attested bythe ever increasing number of textbooks which are geared to MAPLE.An equally careful review of the qualifications of the professors in the Faculty ofEngineering and Applied Science at Ryerson Polytechnic University reveals that anumber of them are graduates of the University of Waterloo, Cambridge, Ontario,CANADA, where MAPLE originated. In addition, the fact that almost all theprofessors of the Mathematics, Physics and Computer Science department (MPCS)are very proficient with MAPLE, is probably another reason favouring its adoption.Indeed, several personal computers located in our offices carry MAPLE. Also,several personal computers in our microcomputer laboratories carry the fullversion of MAPLE. It is thus natural to think of
Session 2266 Making a Partnership Work: Outcomes Assessment of a Multi-Task, Multi-Institutional Project Lueny Morell de Ramírez, José L. Zayas/University of Puerto Rico at Mayagüez, John Lamancusa/Penn State University Jens Jorgensen/University of WashingtonThis paper describes the Manufacturing Engineering Education Partnership (MEEP)project's summative assessment strategy. Since 1994, three universities, Penn State,University of Washington and University of Puerto Rico at Mayagüez, in collaborationwith Sandia National Laboratories, have been
Session 2313 Making a Partnership Work: Outcomes Assessment of a Multi-Task, Multi-Institutional Project Lueny Morell de Ramírez, José L. Zayas/University of Puerto Rico at Mayagüez, John Lamancusa/Penn State University Jens Jorgensen/University of WashingtonThis paper describes the Manufacturing Engineering Education Partnership (MEEP)project’s summative assessment strategy. Since 1994, three universities, Penn State,University of Washington and University of Puerto Rico at Mayagüez, in collaborationwith Sandia National Laboratories, have been
out-of-state program during its first academic year, and how thesechallenges were addressed as a guide to other institutions who might be interested in a similarendeavor.IntroductionThe challenges faced by OIT were formidable. In bringing the program to Boeing, it wasunderstood that the program was to be eventually accredited by ABET. It was thereforenecessary for OIT faculty to teach a substantial part of the courses. This meant that a programdirector with Basic Credentials1 must be found. For the convenience of the students, it was alsonecessary that the courses be delivered in three-hour a day blocks at three Boeing locations.Since many Boeing students had substantial manufacturing experience, it was stipulated that testouts and/or
pause button along with a slider control that allow the animation andaudio narration to be repositioned, replayed or paused. Figure 4 Screen layout showing VCR type controlsFuture ImpactIt is not expected that these lessons will entirely replace the traditional setting of having studentsattend lectures. The lessons should, however, provide a portion of the instruction that iscurrently done in the traditional lecture format as well as a portion of the laboratory instruction.This should allow the format of the class to be modified somewhat so that fewer lecture and lab Page 4.195.4hours will be required. This new format
managing internship activities. Faculty served in various internships atsites including Nortel, Oak Ridge National Laboratories, Smith and Nephew, LockheedMartin and MCI. TEFATE interns performed a variety of tasks for the host industriesincluding training, establishing Intranets, installing cabling, conducting marketingstudies, network administration, and designing networks.The philosophy driving faculty internships, regardless of the type of business or activity,is based in the belief that the best curricula are developed in an environment where thefaculty have• participated directly in that business,• utilized the business’s cutting-edge technology, and• applied this knowledge with the highest possible academic standards.It is important that