. 3.7SummaryFour free-vibration experiments are described in this paper intended to use in an upper-levellaboratory to study engineering vibrations. The unique aspect of these experiments is that it is ahybrid of a turn-key educational hardware and measurement systems that are often used inresearch labs and industry. One apparatus is the ecp model 210 and the other is the ecp model205. The former provides translational vibration and the later provides rotational vibration.One, two, or three degrees of freedom can be easily setup. Also, it is easy to change keyparameters of mass, stiffness, damping, and inertia. The optical sensors provided by ecp aredisconnected and replaced with PCB uniaxial accelerometers. The PC hardware and software forthe turn-key
Paper ID #46582Innovative Pedagogical Tools for Applied Mechanics Using Physical ModelsDr. Basel Alsayyed, Western Carolina University Dr. Basel Alsayyed Dr. Basel Alsayyed is the Engineering Technology Program Director and an assistant professor of the practice in the School of Engineering and Technology at Western Carolina University. Before joining WCU, Dr. Alsayyed was an Industrial Professor in the department of mechanical engineering, of University of Alberta (UofA), Canada. Prior to joining UofA, Dr. Alsayyed was an Associate Professor at the Department of Mechanical Engineering in UAE University. With over 19 years of
andpotential surveyors throughout Georgia. This presentation will discuss the major aspects of thecurrent program and the potential for applying the same practices to meet the needs of othernon-traditional students.I. IntroductionOver the past few years, educators in all areas of the U.S. have sought innovative ways tointegrate rapid technological advances in computers and communications with traditionalmethods of instruction. Thanks to the foresight, planning, and financial support of GeorgiaState government officials, the University System administrators and college officials, MiddleGeorgia College has been provided the resources needed to provide distance learningopportunities to residents all across the State of Georgia. In this presentation, the
consider far more than just the engineer in the product design and developmentprocess. All those who help to shape the decision-making are part of the ethics of design.Finally, we view design as essentially an ethical process already, and the curriculum is notintended to add ethics to that which is only technical. For example, the role of the market andprofit is an ethical system and not its antithesis. To assume otherwise is to close down debate,and to do so on false grounds. This curriculum is intended to expand the ethical imagination, tounderstand and to develop alternative ethical perspectives and the tradeoffs among them. Thecurriculum should help students look upstream and downstream in the transformations of aproduct life cycle. It should
now pervades nearly every part ofeveryone’s lives. To teach computing to just a few would-be “geeks” is no longer sufficient. Noris it sufficient to teach it in isolation [8]. While there remains a need to deeply educate a numberof students in the intricacies of computer programming and usage, there also exists a need toeducate all in the principles of informatics.While Facebook, the iPhone, and the Internet in general are the most obvious examples ofpervasive computing, there is also a nearly ubiquitous use of computing in any data-drivenrealm. Whether you are a social scientist examining economic factors, or a chemist researchingthe effectiveness of a particular catalyst, or an engineer studying the durability of insulatingmaterials in
to use the phone and computer system and setabout to calling prospects. If the volunteer was unable to make contact with the student, he orshe would leave a voice mail message, speak to a parent, and/or send a follow-up email. Thefaculty’s phone call mission was to reach out these prospective students in a nurturing manner inorder to exemplify our student-focused environment and to answer questions. The ultimate goal Proceedings of the 2010 American Society for Engineering Education Zone IV Conference Copyright © 2010, American Society for Engineering Education 152was to increase yields; turning more
and can beintegrated into the content of their classes. In fact, through careful selection of scenarios,students can be led to see how ethics is a natural and essential part of a real-world practice suchas engineering, computer programming, or strategic planning. Page 6.468.8IV. Schematic Summary of Ethical-Empowerment Skills and Pedagogical Responses Proceedings of the 2001 American Society for Engineering Education Annual Conference & Exposition Copyright © 2001, American Society for Engineering EducationIn this section, we present a scheme that identifies skills inherent in ethical empowerment andclassroom
and the Department of Management Information Systems and Decision Sciences in the School ofBusiness Administration worked together to structure a course combining business and engineeringtechnology viewpoints, concepts and students. Careful consideration was given to select a course which,when taught cross-disciplinary, would enhance students’ ability to apply course information effectively in abusiness environment. The interdisciplinary course combined courses titled, Quality Management, from theIndustrial Engineering Technology program and Total Quality Management from the School of BusinessAdministration. This particular interdisciplinary course was developed because managing people, processes,and information from a quality view point
the learning that is required for revenue productionand the learning that is required for academic credit. This effort is a critical component of themandate that the National Science Foundation has given us. It assumes that the readeraccepts, at least for a moment, the premise that engineering is a practiced based professionwhose purpose is to contribute to the tangible form of some planned item.PEDAGOGYIt is sound educational theory that when a broad theoretical concept is learned in tandem witha rich specific context, the acquired knowledge is more readily transferable.1 The next time arelated, different specific context is encountered, the transition of the old knowledge to thenew context is both easier and faster than acquiring brand-new
Management (Missouri S&T) and Civil Engineering (Virginia Tech) and a Ph.D. in Civil Engineering (The University of Texas at Austin). He has taught several courses in the civil engineering curriculum ranging from structural engineering and steel design to infrastructure systems and construction management. Each spring, he co-teaches Project Management Professional prep classes to the West Point community. His research interests include topics in structural engineering and engineering education. He serves as the Vice-Chair of the American Institute of Steel Construction (AISC) Partners in Education Committee and as a member of the American Society of Civil Engineers (ASCE) Committee on Education and Committee on Faculty
as peer-evaluation from CATME, that they are contributing more to the projectand that they are also helping students who are slower in understanding MATLAB and teamworkissues. This reward scheme serves as incentive to make their teams work and to offer support toless-able students, creating a caring peer-support environment in this course.It is hoped that the teaching / learning system proposed in this paper would conform to Ramden’slearning theory: “… learning in educational institutions should be about changing the ways inwhich learners understand, or experience, or conceptualize the world around them. The “worldaround them” includes the concepts and methods that are characteristic of the discipline orprofession they are studying” [10]. In
@farmingdale.edu tatoglu@hartford.edu Abstract Self-directed learning (SDL) is essential for by various engineering education, resulting in less definitivestudents, graduate students, and mid-career professionals seeking descriptions of the relevant concepts [13] and shifting the focuscontinuous improvement. AI-powered tutors can enhance SDL by on who the self-directed learner is. A self-directed learner canguiding learners through the stages of learning readiness be anyone: an undergraduate student, a recent graduateassessment, goal setting, engagement, and evaluation. This paper preparing for the Fundamentals of Engineering (FE) or the
-Form_EPICS_HCD_submit.docx Page 1 of 8 WORKSHOP PROPOSAL FORM 2015 Annual ASEE K-12 Workshop on Engineering Education “Authentic Engineering: Representing & Emphasizing the E in STEM” Presented by Dassault Systems Saturday, June 13, 2015 8:00 A.M. – 5:00 P.M. Sheraton Seattle | Seattle | WAPlease provide a one-paragraph bio for each presenter (in the order listed above). The bio shouldnot exceed 70 words and should be written as you would want it to appear on the ASEE websiteand program materials.1) William Oakes, P.E. is a Professor of
model.VI. Acknowledgments The project was partially supported by Caterpillar’s Systems andControls Research Department. The authors would like to thank Jeff Alig, Roger Koch, andRobert Price for their assistance. Page 11.1432.10Bibliography1. Quanser Consulting Inc., 80 Esna Park Drive, Markham, Ontario, Canada.2. Apkarian, J. and Astrom, K. “A Laptop Servo for Control Education,” IEEE Control Systems Magazine, Special Issue: Innovations in Undergraduate Education, Volume 24, Number 7, October 2004.3. Dempsey, G. "Using Conventional Controllers with the CMAC Neural Network," Proceedings of the Artificial Neural Networks in Engineering
in Engineering Education and researcher at Purdue University affiliated with XRoads Research Group, the Global Engineering Program and the Office of Institutional Research, Assessment, and Effectiveness. He received a Bachelor’s degree in civil engineering from Florida State University and a Master’s degree in environmental engineering from Purdue University.Prof. Brent K Jesiek, Purdue University, West Lafayette Dr. Brent K. Jesiek is Associate Professor in the Schools of Engineering Education and Electrical and Computer Engineering at Purdue University. He is also an Associate Director of Purdue’s Global En- gineering Program, leads the Global Engineering Education Collaboratory (GEEC) research group, and is the
development program that is designed to offerrelevant, collaborative, and sustained support to science, technology, engineering, and math(STEM) educators at North Dakota State University (NDSU). Gateways-ND has changed, and ischanging, the culture of STEM education at NDSU, which is influencing STEM educationaltraining programs throughout the institution and the state. When the program started in 2015, theuniversity was at a critical juncture in its approach to STEM education, and this program hasaccelerated the pace of positive educational change at NDSU and beyond. Our institutionalpremise for this vital change in culture is best stated by Project Kaleidoscope, the authors ofwhich wrote, “We now have indisputable evidence (emphasis added) that
exploration that improves self-esteem andencourages questioning and daring. The Eight-Dimensional Methodology has been recentlyevaluated with encouraging results. Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition Copyright 2002, American Society for Engineering Education* This work has been supported in part by the National Collegiate Inventors and Innovators Alliance (NCIIA), and Page 7.466.1was supported in part by a grant from the National Science Foundation, Division of Information, Robotics andIntelligent Systems, Grant # IIS-9615688,.1. IntroductionA
skills, we feel it will be the most productive to critique the small designgroups’ (four students in each) work as the design projects are completed. Teaching CAD skills and testing the students’ level of ability is nothing new, socurrent methods will continue. The students will work from a prepared set of lessonplans, and produce CAD parts, assemblies, and drawings over the course of the semester.One thing that makes the PLM software unique is that the CAD system is only a part ofthe overall product. In the past, stand-alone CAD packages have been the standard. Thishas led educators to the conclusion that the software suite we are implementing, CATIAV5, is nothing more than a fancier drafting program. While it is true that the CADportion
. High school and community college trials are planned fornext year.The spreadsheets tutorials, reference cards and several materials science applications moduleshave been completed while the spreadsheets reference guide and a number of other applicationsmodules are in development.Samples of the assignments, modules, reference cards and other materials will be available onthe web at www.matsci.ucdavis.edu/meier/SAMS.AcknowledgmentsThe author would like to acknowledge the support of the National Science Foundation’s Course,Curriculum and Laboratory Improvement program (Division of Undergraduate Education) forsupporting this work through grant number 0127591. “Proceedings of the 2003 American Society for Engineering Education Annual Conference and
areas such as Data Warehousing and Data mining, Computing Theory and Programming Languages, Introduction to Computer Programming, Machine Learning, Knowledge-based Systems, Artificial Intelligence, Web Database Applications, Data structures and Algorithms, and Algorithms and Paradigms. Page 21.12.1 c American Society for Engineering Education, 2013An Interactive Courseware for Learning Data Warehousing on the Web1. Introduction Building on our own experiences, we address two issues related to global engineering education3, 4 in most universities today in this paper. These issues are, how
facility for education and research in the areas of automation, control, and production systems. Dr. Hsieh received his Ph.D. in Industrial Engineering from Texas Tech University, Lubbock, TX.Hye Jeong Kim, Texas A&M University Hye Jeong Kim is a graduate student in the Dept. of Educational Psychology at Texas A&M University. Page 11.262.1© American Society for Engineering Education, 2006 Automated Robotic Workcell Design Toolkit – Preliminary EvaluationAbstractFrom the assembly and welding of automobiles to mixing and packaging pharmaceuticals,automated systems, such as robotic workcells, play an
based knowledge with academic inquiry. 9 Then why should not the samerequired of the faculty, that is, a blending of industrial experience with academic knowledge,thereby fusing practical applications with theory. This would strengthen the ties, and redefinethe boundaries between education and practice in the preparation of professionals. A moreprofessionally involved faculty would also improve the interaction between industry andacademia, and improve a relationship that is at times lacking in trust and respect.Architectural and engineering educators have a vital interest in enhancing their industrialexperience, as it would enrich the schools, support experience and sustain learning. Thoseeducators teaching professional courses should not only
useful as possible. The Instructor reflection report focuses the instructor on addressing Proceedings of the 2003 American Society for Engineering Education Annual Conference & Exposition Copyright © 2003, American Society for Engineering Educationkey issues for course improvement, program improvement, and process improvement. Thechecklist serves as a reminder so that all assessment related activities are done in a timelymanner.The process of actually defining program outcomes and the corresponding specific/measurableoutcomes and performance criteria is extremely important but is dealt with in many other sourcesand is beyond the scope of this paper. The sections on course design, assessment evidence, andsurveys
sustainable development research questions also require integrating the humanities and the engineering sciences, with their very different methods and traditions. The 2015 report also noted the need for transdisciplinarity which requires not only engagement of scientists and engineers but interdisciplinarity and outreach by scientists and engineers to nonscience communities. The 2015 report also noted the need to address social responsibility and ethical aspects in looking for innovative technological solutions. The 2016 report will maintain the sciencepolicy interface and the SDGs as an integrated system as the main threads of the report. The UN Environmental Program (UNEP) recently teamed with the World Health Organization to look at
goals that are being satisfied and those which are not. Thisinformation can motivate and direct efforts to improve curriculum.In practice, the measurement of educational outcomes is difficult and can be expensive, the results are oftenambiguous or statistically unsound. The positive impact of continuous improvement on the curriculum isdifficult to provei. Despite the difficulties and expense, accrediting groups and other agencies havemandated outcomes assessment and continuous improvement. Of special note are new criteria by theAccreditation Board for Engineering and Technology (ABET), which apply to engineering programs in2000ii, and are projected to be mandated for engineering technology programs in 2001iii. The new criteriarely extensively
civil engineering, practicing professionals often work on large-scale projects withhuge costs and impacts. Practical experiences provide an effective way to let students see howthe things they learn in the class relate to the real world. Moreover, the practical experiences canbe used to expose students to career options, role models, construction sites, and experience ofthe day-to-day challenges of project management.Some conventional examples of such practical experiences are cooperatives education programs(co-ops) and internships. At Rensselaer Polytechnic Institute there is an ongoing search for Page 8.1100.1additional opportunities to
explore further for assessing labs in the future.IX. ConclusionAn iLab has been developed and deployed at Obafemi Awolowo University to allow studentscarry out experiments on programmable logic devices. The lab is built around an Altera DE1development board and uses a Java applet client. The lab has been tested and has been used ina credit-awarding course once. From the positive responses of the initial testers, it is believedthat the system would be very useful in augmenting the digital electronics part of theelectronic and electrical engineering curriculum of the university.Bibliography 1. Feisel, L., and Peterson, G.D. (2002): A Colloquy on Learning Objectives for Engineering Educational Laboratories, Proceedings of the 2002asee
Macintosh platforms.The most effective and accessible materials and tools in both instances were LEGO bricks andLabVIEW. LabVIEW’s graphical environment combined with the familiar building materialsmade developing creations that incorporated science and engineering principles easy and fun. Thesuccess of teachers, students, and developers with this combination led to a partnership betweenTufts University, LEGO DACTA, the educational division of the LEGO company, and NationalInstruments, the makers of LabVIEW, to commercially develop software and supportingcurriculum. The partnership focused on software that would allow users to program the RCX(Figure 1), the programmable LEGO brick, in a graphical, icon based environment. Figure 1. The RCX has
AbstractSociety has been changing faster every day to adapt to changes linked to economic, technological,environmental, and social shifts and uncertainties. In times of uncertainties, everything, includingeducation, is affected negatively. To protect and support the education pipeline, educators,departments, and colleges should invest in recruitment and outreach activities more than ever before.For this purpose, at Southeastern Louisiana University, various off-campus, on-campus, and on-lineday-long programs, summer camps, certification programs, and other activities for both K-12students and school teachers are designed and delivered around the concepts of "3D printing andComputer-Aided Design (CAD)". In this study, the activities will be presented in
-disciplinary teams, similar to a real-life workexperience.In short, the paper offers an innovative approach to start-up a mechatronics laboratory.It provides an approach to increase the educational experience of the mechanicalengineering student and provide them with the skills to meet the demands of a dynamicindustry. Page 5.129.1I. How would a hands-on mechatronics laboratory benefit the students?The current demands on entry-level engineers, by prospective employers, are for thenew hire to quickly transfer from the classroom student into a contributing teammember. The graduating engineer should be well prepared to take on the newchallenges in the work place