Paper ID #6516Computer Simulation and Animation in Engineering Mechanics: A CriticalReview and AnalysisOai ”Andy” Ha, Utah State University Oai Ha is currently a Ph.D. student in the Department of Engineering Education in the College of En- gineering at Utah State University. He works as a graduate research assistant on a research project that focuses on studying the effect of computer simulation and animation on student learning in engineering dynamics. He received his B.S. in Mechanical Engineering from the University of Technology, Hochim- inh City, Vietnam, and his M.S. in Mechanical Engineering from California
issuesrelative to solving complex global problems: 1) scale of demand, 2) scale of the investmentneeded to produce alternatives at scale, and 3) scale of time it takes to produce alternatives.Demand is based on the exponential factoring of the global population. At about seven billion Page 23.401.16today, the world population is being projected to 9.3 billion by 2050. The ability to scalecomplex global problems at the local, regional, or global level has been complicated, if notimpossible. Other considerations that must be factored into the design equation are the immediateimpacts and long-term consequences of the new solutions. Resolutions to
. Page 23.470.10Appendix 2As a sub-organization of the IFA, the Institute for Occupational Health and Safety of the GermanSocial Accident Insurance, the BGIA or German Institute for Occupational Safety is responsiblefor testing and certification according to European guidelines and national laws. In this way theBGIA gives manufacturers the security that their products meet all requirements concerningoccupational safety at European level. The U-Tech GSG202 system has also been subjected toall safety tests and was granted certification according to European norm EN954 in 2003. Ourcooperation goes far beyond this, however, and also includes joint product and furtherdevelopment projects, particularly with regard to the application of the system in
-on, inquiry-based activities, projects and labs. Fellowsreceived instruction on learning and teaching in a graduate level education course during thistime as well. The year ended with Fellows developing and teaching summer workshops forteachers from across the State. The workshops disseminated the best activities that the Fellowsdeveloped to over 300 teachers.During the school year, each GK-12 Fellow repeatedly leveraged his or her expertise to raiseSTEM awareness. The following example illustrates the types of activities that occurred.An Environmental Engineering Ph.D. student working with fifth grade students developed aseries of activities that integrated science standards on the water cycle and on ecosystems withengineering practice. The
receiving an engineering education to firstgeneration, minority students. For example, the Civil Engineering department hosts a two-weeksummer program for approximately 60 minority high school students (only) where students getthe opportunity to visit all of the engineering labs, perform various experiments, complete adesign project (such as a bridge), and spend time with the engineering faculty (other than thedepartment of Civil Engineering). This two-week program culminates with an award ceremonyattended by both parents and faculty. Data collected from this event shows that between 30-40%of those students end up matriculating at Manhattan College and entering the SOE. Because Manhattan College is located in the Bronx, most of its minority
business by more actively promoting technology transfer and commercialization (Smilor & Matthews, 2004).Another key role of university third mission activities is workforce development. Lowe [20] hasdocumented the critically important combination of university educational roles with targetedand customized workforce development. In her analysis of knowledge-based industries and thevery successful North Carolina model, she observed that: This role is certainly not a new one for workforce development agencies in the United States. Project Quest in San Antonio, Jane Addams Resource Corporation in Chicago, the Wisconsin Regional Training Partnership in Milwaukee, and New York City’s Garment Industry Development
method, shells/plates, composite material panels, and tires. She has also worked on nu- merous projects to create advanced engineering design and learning environments which include multi- modal user interfaces for space systems. As Vice President of Information Technology, Peters directs the development of advanced virtual reality applications, including scientific visualization applications and web-based multimedia education/training applications. Page 25.641.1 c American Society for Engineering Education, 2012 Flexible Multibody Dynamics Explicit Solver for Real-Time Simulation of an
and a B.S. in industrial engineer- ing from West Virginia University. Componation works in product and system development with primary research interests in project and systems management, decision theory, and engineering economics. He has managed and supported research efforts with DOD, NASA, and numerous defense and aerospace in- dustries. He a member of the Institute of Industrial Engineers (IIE), the International Council on Systems Engineering (INCOSE), the American Society for Engineering Education (ASEE), and a Fellow with the American Society of Engineering Management (ASEM). Page 25.923.1
and visualization, and engineering system dynamics. His work has been recognized with multiple best-paper awards. He conducts workshops in student team-building, team-formation and peer evaluation, in laboratory assessment, and in effective teaching. Prior to his academic career, Dr. Layton worked for twelve years in consulting engineering, culminating as a group head and a project manager. He is a guitarist and songwriter and a member of the rock band “Whisper Down”.Thomas Adams, Rose-Hulman Institute of Technology Thomas M. Adams is an Associate Professor of Mechanical Engineering at Rose-Hulman Institute of Technology. He earned a B.S. in Mechanical Engineering from Rose-Hulman
(two or three days on a Sun enterprise 450) for 50 to 100 student submissions, thesearch window (range of possible relative file offsets) was constrained to as little as 100characters. Pre-filtering of the files, similar to the tokenization described above, was used toreduce the size of the files to be compared. However, restricting the search window reduced theinstances of plagiarism that could be detected.ResultsInitial testing was done using student source code samples from a simplified I2C bus interfacedesign project during spring 2003. I2C is an industry standard synchronous serial bus interfaceused in a wide range of consumer electronic products. Transformations were applied to thesource code samples in order to observe the behavior of
thenundertake the tasks in order to gain points, moved a level-up to work through a progressivelynot having the tasks themselves as central to more challenging task.the game as was indicated by Thatcher14.Gaming StrategyThe modified course was designed to motivate students to contact the course material at theirown pace, and use the model of game levels of increasing complexity and challenge. The modelwas similar to ones described by Goehle20 and by de Feitas19. In those projects, there were visualand software elements of a video game, such as unique graphics, and increased “powers”available to players as they gained experience points. In the Thermodynamics game describedhere, the author did not attempt to build a custom game platform, but
(UW-Madison), Dr. Kevin Kirtley (General Electric Waterand Power), and Professor Robert Lucht (Purdue University). The co-principal investigators onthe project, Dr. Jeffrey Froyd and Professor K. Rajagopal, are acknowledged for theircontributions and assistance to the concept inventory. Faculty colleagues at Texas A&MUniversity Department of Mechanical Engineering are acknowledged for their assistance inadministering the concept inventory to their respective courses; these colleagues includeProfessor Michael Pate, Professor David Staack, Professor Andrea Strzelec, Mr. Joshua Bittle, Page 24.174.12and Dr. Jacob McFarland. Finally, the data
24.323.9females who used one or more forms of supplemental instruction increased this year by 6%compared to last year; the percentage of males was unchanged from last year. These differencescan be attributed to some students receiving better grades than their trigger point for seeking helpand some students not seeking help when they projected they would.This year 47% of honors males and 48% of honors females indicated at the beginning of thesemester that they would seek out extra help with grades of B or C. We found that at the end ofthe semester these honors students sought extra help with grades of B or C, as they projected.The average threshold value was slightly lower, closer to a grade of C, for honors students thanfor non-honors students. 90% of
activities.Dr. Marilyn A. Dyrud, Oregon Institute of Technology Marilyn Dyrud is a Full Professor in the Communication Department at Oregon Institute of Technology and regularly teaches classes in business and technical writing, public speaking, rhetoric, and ethics. She is part of the faculty team for the Civil Engineering Department’s integrated senior project. She is active in ASEE as a regular presenter, moderator, and paper reviewer. She has also served as her Campus’ Representative for 17 years, as Chair of the Pacific Northwest Section, and as section newsletter Editor. She was named an ASEE Fellow in 2008, and two years later received the McGraw Award. Currently, she is on two division boards, Engineering Technology
conference held by the NSF Engineering Directorate and the ADVANCE program. 3. Is currently participating in a dissemination project funded by the National Science Foundation to produce publications titled “A Dean’s Guide to Diversity” and a “Department Head’s Guide to Diversity.” 4. Has hired a full-time program coordinator to handle K-12 outreach, including specific outreach to girls.The mentoring program is a centerpiece of the retention effort at NMSU. As mentioned earlier,women are less likely than men in academia to receive mentoring as they progress throughgraduate school and then assume jobs in academia or industry12. Women’s Studies programs anduniversity commissions on the status of women have long
exercises in very large sections (200 to 300students).6 Classroom selection for such a session should take into consideration the classroomfurnishings. Anchored seating could be workable as long as adequate table space is availableand students can cluster quickly into teams. However, in large lecture halls with theater seatingand very small pull-up desks, students will have difficulty just physically gathering into teams,and that translates to wasted class time. Team assignments for these in-class activities can be accomplished in various ways. Thecritical issue here is to guard vigilantly against lost class time. If you have established teams forother, longer duration projects, you might consider using those established teams for the hands
DELIBERATE LONGITUDINAL CURRICULAR INTEGRATION: TOPICAL LINKAGES AND CONCEPT REINFORCEMENT Barry L. Shoop, George A. Nowak, and Lisa A. Shay United States Military Academy, Department of Electrical Engineering and Computer Science, West Point, New York, 10996 U.S.A. email: Barry.Shoop@usma.eduAbstract. Students in many engineering programs feel that their educational experience consists of a series of isolated courses that build expertise in discrete topical areas. The only time these discrete topics are integrated is in a capstone engineering project during their senior year. Understanding how topics covered in one
or more of the analyses provided in this article as an in-class small group project, as a homework problem, or as a quiz or exam problem.Furthermore, the historical information presented in this article could also be a suitable topic fordiscussion at a meeting of any of the mechanical
accident causation and system safety, and for some of the more analytically maturestudents, stochastic modeling an analysis of particular events or topics.Criterion 3 student outcomes: f, g, h, j, kOther options for assignments are being considered for the course, such as group term projects,and some form (TBD) of interaction with government regulatory agencies, and accidentinvestigation boards.4.6 Assessment and EvaluationWhen devising a new course, it is important to reflect on the material to be delivered, how todeliver it, and how to evaluate the teaching effectiveness and impact. The course has not beentaught long enough to assess what is known in education research as “far transfer” or its long-term impact.5 But the short-term evaluation of
the techniques, skills, and modern engineering tools necessary for engineering practice.(a) an ability to apply knowledge of mathematics, science, and engineering.The craft of engineering requires the direct application of mathematics, science, and technologycontent and skills. While technology is not included in ABET 3-(a) it appeared frequently in theliterature in relation to K-12 engineering education, meriting the addition of technology to thisdiscussion. Two main themes emerged from the literature. The first key point is that the STEMdisciplines overlap and are fundamentally related. Furthermore, it was argued that addingengineering concepts and projects to mathematics, science, and technology curricula havebenefits for both
andmathematics over the next decade2.Like the rest of the country, Boise State University has implemented research projectsand initiatives to study and improve mathematics success among engineering students,with particular emphasis on freshman retention. An engineering professor who has ledseveral of these initiatives decided to experience freshman-level calculus firsthand by re-taking Calculus 1 nearly 30 years after her own freshman days. Her instructor was thechair of the mathematics department, a professor with whom she has collaborated onnumerous research projects. The evidence presented in this paper is based on the Page 25.267.2experiences of these two
way or another it should engage the studentin the perennial questions of philosophy. There are many ways of achieving this goal. There is aneed to bring together relevant practice, and there is a need to experiment. In terms of theorganization of the curriculum and the need for mixed learning communities the need fordivergent visioning is great.Acknowledgements.I am deeply indebted to Dr Alec Martin who introduced me to the works of John Macmurraywhen he was the responsible official in the UK Employment Department for our project on theanalysis of jobs done by engineers. I am very grateful to Dr‟s Alan A. Cheville and Mani Mina,and Ms Sarah Heywood for their perceptive comments on the draft of this textNotes and references[1] Koen, B. V (2003
engineering design and work, the systems and management of engineering projects andpractice and the high-level systemic impact of engineering on our society and environment. Weare both practitioners, teachers, and researchers. We are interested in identifying andunderstanding the larger scale interactions and influences that inform the development andprogress of change and resistance to change in engineering education and professional practiceculture.3. MethodologyTo develop a framework for characterizing engineering education culture and ultimately capturechange that occurs along cultural dimensions pertinent to the engineering education context, weattempt to synthesize relevant literature related to culture and specifically engineering culture.The