,microcontroller programming and data acquisition, and select topics in robotics with adesign competition.Over the semester there are only two on-campus lab activities, one for each of the twodesign competitions. The development team agreed that two face-to-face visits over thesemester seemed like a reasonable traveling commitment for an online student takingsuch a course. It was also recognized that students in circumstances with severely limitedtravel ability could potentially complete the robotics competition at home, synchronouslyparticipating in the final design competition via live web-enabled video conferencing.Design ProjectsTwo design project competitions are integrated into the curriculum, with experimentsbuilt into the schedule for students to
laboratorieswhich have been fully implemented into existing undergraduate curriculum. Graduate studentparticipants were able to meet the technical challenges of the project with minimal facultyassistance; however, some experienced difficulty in developing conceptual questions and threadswhen developing laboratory analysis exercises.Introduction This paper addresses a collaborative method in which members of an engineering technologygraduate course elected to revive and enhance an undergraduate electronics communicationslaboratory course as a component of a group project. Although material presented hereincontains specific technical detail pertaining to the given project, the overall approach andmethods can be adapted to curricula across a range of
AC 2008-1140: THE DEVELOPMENT AND DEPLOYMENT OF ANENGINEERING TECHNOLOGY CURRICULUM TO COMBAT ENGINEERINGGLOBALIZATIONJerome Tapper, Northeastern University Professor Tapper is an Associate Academic Specialist in EET at Northeastern University in Boston, Massachusetts. He holds a BSEE and an MSIS, both from Northeastern University. Jerry is a Registered Professional Engineer in the Commonwealth of Massachusetts with over twenty-five years of industrial experience. He is also the author of a tool-kit based text for electrical engineering technology students, Electronics for Engineering Technology.Francis Dibella, Northeastern University Prof. Francis A. Di Bella, a Registered Professional Engineer
Paper ID #43059Effects of Integrating Computational Tools into an Introductory EngineeringMechanics CourseWayne Chang, University of Illinois Urbana-Champaign Wayne Chang is an assistant teaching professor in the Aerospace Engineering Department at the University of Illinois Urbana-Champaign. He received his BS, MS, and Ph.D. in Mechanical and Aerospace Engineering from the University of California, Irvine. His current engineering education research interests include cross-course teaching tool development, implementation, and integration into curriculums.Seung Woo Ok, University of Illinois Urbana-ChampaignProf. Matthew West
evaluated, (c) a curriculum and process that ensures the achievement of these objectives, and (d) a system of ongoing evaluation that demonstrates achievement of these objectives and uses the results to improve the effectiveness of the program.1In this paper, we describe an integrated program assessment model, developed in direct responseto the requirement for “a system of ongoing evaluation” specified in Criterion 2(d) above. Themodel has been implemented successfully through two annual assessment cycles in the ABET-accredited civil engineering program at the United States Military Academy, West Point.For the purpose of this paper, we assume that program objectives have already been formulated,consistent with Criterion 2(a) and
following the traditional curriculum track atMSOE. The FHL students readily demonstrate their strong technical and non-technical abilitiesduring their Diploma Design Project and senior year academic course work.ConclusionsThe Milwaukee School of Engineering and the Fachhochschule Lübeck have developed andimplemented a student exchange program that is integrated into the normal curricula of bothinstitutions. The main practical results of the program is that the MSOE students gain a broadand unique international understanding, in addition to the academic advancement of their junioryear abroad, and the FHL students gain an academic degree that allows them ready employmentin US industry and opportunity for entry into US graduate programs.One of the
AC 2011-444: AN INQUIRY-GUIDED LEARNING APPROACH TO PRO-CESS INTEGRATION, SIMULATION, AND ECONOMICSLale Yurttas, Texas A&M University Lale Yurttas received her Ph.D. degree in Chemical Engineering from Texas A&M University in 1988. She has worked as a research associate in Engineering and Biosciences Research Center and conducted research in areas of biomass conversion, protein folding and stability, and biological membrane thermody- namics until1996. She is currently a senior lecturer in Chemical Engineering Department at Texas A&M University and serves as the Assistant Department Head for the Undergraduate Program. She has exten- sive teaching experience in sophomore through senior level classes with
Session 2615 Geo-environmental Engineering - An Integral Part of Civil Engineering Beena Sukumaran Rowan UniversityAbstractAll sophomore students at Rowan University are introduced to engineering design andexperiments through a series of integrated lectures and laboratories. The class described in thefollowing paragraphs, is one in a series of engineering clinics offered in the freshmen to senioryears. Sophomore students are exposed to a variety of engineering principles, experimentalmethods, and design tools not typically
, established anIntegrated Learning Factory (ILF) at each school and intimately coupled it with an alternativeCore Curriculum. The ILF concepts at each of the partner schools are described in DeMeter, et 1 2al. and Lamancusa, et al.2) Integrated Learning Factory (ILF) Description The Integrated Learning Factory at the University of Washington is now operating in itssecond year. As a new instructional laboratory of the College of Engineering, it simulates adesign and manufacturing workplace and supports the new interdisciplinary Product Realizationminor, which encourages a hands-on approach to integrating design, manufacturing and business.The Integrated Learning Factory is a new approach to design and manufacturing
Web-Based Tool for Learning an Integrated View of Engineering1 Anne Y. Boisvert, Bahaa E. Saleh2, S. Hamid Nawab ECE Department, Boston University Session: Tools, techniques, and best practices of engineering education for the digital generationWe present a web-based tool that we have developed with the view of improving the manner inwhich electrical and computer engineering (ECE) students acquire knowledge that (1) cuts acrosstraditional course boundaries in the undergraduate ECE curriculum and (2) ties practicalapplications or products to concepts and techniques from different ECE courses. In developingthis
Business Department Head) buy-in No faculty buy-in. Resistant Freed23(Former Tarleton Slow, incremental rollout into faculty due ta added work and Business Department Head) courses curriculum change Barnes & Ferguson22 Wilson & Lindoo24 Curriculum development Stewart, Gable, Andrews, Use SAP Alliance curriculum costs Rosemann & Chan4 Students do not understand Barnes & Ferguson22 Incorporate an overview/review business processes, of ERP systems in courses integration, and terminology with SAP
Session 2525Combining Engineering Design with Professional Ethics Using an Integrated Learning Block Donald Leone, Beatrice Isaacs University of HartfordAbstractThis paper deals with the development of a new sophomore level engineering design course atthe University of Hartford. The new course is part of a NSF grant, “Integrating EngineeringDesign with the Humanities, Social Sciences, Sciences and Mathematics”, which impacts all fouryears of the undergraduate curriculum. The new engineering design course shares a one creditintegrated learning block (ILB
, Christie RD, 2002. A capstone design project to meet the needs of the changing power systems industry and satisfy new accreditation standards. IEEE Transactions on Power Systems; 17(3): 535-542[5] Nicholls GM, Wolfe H, Besterfield-Sacre M, Shuman LJ, 2010. Predicting STEM degree outcomes based on eighth grade data and standard test scores. Journal of Engineering Education; 99(3): 209-223[6] Heywood, J. Engineering education: research and development in curriculum and instruction. November 2005, Wiley-IEEE Press.[7] Moore DJ, Voltmer DR, 2003. Curriculum for an engineering renaissance. IEE Transactions on Education; 46(4): 452-455[8] Rehman H, Said RA, Al-Assaf YA, 2009. An integrated approach for strategic
2006-753: INTRODUCING AN ONLINE COMMUNITY FOR CHEMICALENGINEERING EDUCATORSDavid Silverstein, University of Kentucky DAVID L. SILVERSTEIN is currently an Associate Professor of Chemical and Materials Engineering at the University of Kentucky College of Engineering Extended Campus Programs in Paducah. He received his B.S.Ch.E. from the University of Alabama in Tuscaloosa, Alabama; his M.S. and Ph.D in Chemical Engineering from Vanderbilt University in Nashville, Tennessee; and has been a registered P.E. since 2002. He has over twenty years experience in microcomputer programming. Silverstein is the 2004 recipient of the William H. Corcoran Award for the most outstanding paper
2006-678: LESSONS LEARNED FROM DEVELOPING AND TEACHING ANINTEGRATED THERMAL-FLUIDS COURSEDaisie Boettner, U.S. Military AcademyMichael Rounds, U.S. Military AcademyOzer Arnas, U.S. Military AcademyPhil Root, U.S. Military AcademyRichard Melnyk, U.S. Military AcademySeth Norberg, U.S. Military Academy Page 11.884.1© American Society for Engineering Education, 2006 Lessons Learned from Developing and Teaching an Integrated Thermal-Fluids CourseIntroductionThe Mechanical Engineering program at the United States Military Academy at West Point, NewYork, recently implemented a revised curriculum designed to reinforce engineeringfundamentals and to offer
how creativity will be integrated intotechnical content in order to graduate engineers capable of leading the future.Creativity can be defined in many different ways, and is often confused with simple problemsolving5. North American engineering institutions such as Ohio State University and PurdueUniversity have developed tools for assessing creativity within an engineering design context2.These types of tools are important assets for instructors attempting to incorporate and gradecreativity within a design curriculum, and also provide recommendations for integratinginterdisciplinary creative skills. Creativity can also be integrated through entrepreneurial productdevelopment and gamification. Gamification is the process of applying game
complexities of the engineering profession. TheIntegrated Learning initiative will transform engineering education at Queen’s, and will positionCanada as a leader, in engineering education worldwide.A uniquely designed facility, the Integrated Learning Centre (ILC), will allow for the delivery ofa redesigned curriculum that addresses new challenges facing engineering educators:• An exponential growth in knowledge. An explosion of curriculum material and heavier course load has led to an increasing trend to specialization within engineering programs.• Desire for breadth and professional skills. The tendency to specialize is in direct contrast to increasing demand by the profession for a strong foundation in theory coupled with the
Paper ID #14287Rehash Your Trash: An EngrTEAMS STEM Integration Recycling Curricu-lar ModuleMr. James Holly Jr., Purdue University James Holly, Jr. is a Ph.D. Student in Engineering Education at Purdue University. He received a B.S. from Tuskegee University and a M.S. from Michigan State University, both in Mechanical Engineer- ing. His research interest is exploring formal and informal K-12 engineering education learning contexts. Specifically, he is interested in how the engineering design process can be used to emphasize the hu- manistic side of engineering and investigating how engineering habits of mind can enhance pre
experience being an academic year-long experience, were central to launchingthe program, the maintenance and ultimate health and success of the program hinged on buildingrelationships, relationships, relationships, the exchange program’s equivalent to the well knownadage of the real estate market.Exchange Program Description and InstitutionsThe Milwaukee School of Engineering (MSOE) and the Lübeck University of Applied Sciences,Lübeck, Germany jointly developed and implemented a unique international student exchangeprogram in the discipline of Electrical Engineering (EE). The uniqueness of the program lies inthe fact that it is fully integrated into the EE curriculum of both institutions and constitutes aspecific degree path at both institutions
system has served as a key component in our K-12 outreach program, our freshman chemical engineering classes and as a means for engagingour chemical engineering students in service learning activities.This integration of activities, all surrounding the LEGO™ Robotics system (coupled to Vernier®sensors and probes and “in house”-designed apparatus) has engaged students at all levels, frommiddle school through chemical engineering seniors in an exciting, “studio-based” environment.Anecdotal evidence suggests students readily “latching onto” key concepts and various aspectsof engineering through this “multi-modal” learning approach. Objectives of this method ofprogram integration include: 1) strengthened recruiting of students to engineering studies
). Reaching students at an early age is key in the attempt to encourage them to pursue STEMfields. Efforts can start by targeting middle school students, with an integrated approach, drawingsupport from various entities, to increase student confidence and interests in STEM. Morespecifically, with programs like the CCSU NSTI, a curriculum with more hands-on activities andsmall group competitions can suit young people's learning styles and preferences, stimulatinggreater interests in STEM fields and careers.Acknowledgement: We wish to thank the Federal Highway Administration for funding the CCSU NSTI programfor multiple years.References: 1. Nadelson, L. S. & Callahan J. (2011) A Comparison of Two Engineering Outreach Programs for
also expanded their role and has served as the client for capstone projects,particularly those focused on emerging technologies.Although StudioG accepts projects in various stages of commercialization, the ideal capstoneproject transitioning to StudioG is expected to have a minimum of a working prototype capableof yielding reliable data and/or results. Thus, capstone projects that have been validated throughtesting and external feedback within the AIS are given high priority.Preliminary ResultsDuring the 2016 calendar year, the capstone integration project has effectively consulted a totalof twenty-three capstone projects. These numbers show an increase of 256% when compared tothe number of capstone projects consulted during the 2015 school
reputation for innovationand educating highly-qualified automotive technicians – and pooling their respective resources(i.e., their programs, faculty, facilities, location, and industry ties), a series of activities were heldto realize the stated objectives. They were as follows:• Created an advisory committee to oversee the program• Integrated HEV curriculum with existing AAS program in Automotive Technology• Revised existing courses, developed HEV specific courses, and delivered these courses• Developed and delivered a two-day short course• Developed and delivered seminars and workshops• Created an HEV specialized laboratory• Created internship and co-op opportunities, plant visits, and an expert lecturer series• Developed
they will be completed in a single semester we will include averageand pessimist durations. The information obtained by PERT analysis will emphasize courses thatcould further delay more the time to get a degree. The continuous evaluation of dependenciesmight be used to bundle some outcomes into different courses and make an integrated curriculumwith other programs. Page 13.416.5There have been several successful attempts 5-9 to create threads around a single common area,such as a large design project that crosses several courses in their curriculum. In contrast thiseffort takes all the
section of this paper.MOTIVATION The new introductory curriculum at Princeton focuses on solving problems across the entireEE field, and away from narrowly focused specialty courses centered around various tools andmethods. This is accomplished through four required sophomore level courses which are: AnIntroduction to EE Systems and Signals, Electric Circuits, Digital Logic, and Integrated Circuits:Practice and Principles. The four courses span the scope of electrical engineering and are notdesigned to be an introduction of various tracks for people keen on majoring in that track. Rather,they are designed as a broad overview, more to instill what the basic concepts and goals are in thearea for the non-specialist. In the area of integrated
Work-Integrated Learning: An Alternative Pathway for High School Physics Vanessa Ironside, Lisa Cole, Michelle Tsui-Woods Lassonde School of Engineering, York University vanessa.ironside@lassonde.yorku.ca, lisa.cole@lassonde.yorku.ca, michelle.tsui-woods@lassonde.yorku.caAbstract k2i academy within the Lassonde School of Engineering at York University is committed todismantling systemic barriers that impact underrepresented youth in science, technology,engineering, and math (STEM), including women, Black youth, and Indigenous youth. Abarrier to pursuing engineering and many sciences in post-secondary is high schoolprerequisite courses, with grade 11
-semester integrated systems design experience. AbstractEngineering is design. In the last 20-25 years, senior level capstone design courses have becomehighly visible at most engineering universities. They serve a key role in teaching students aboutdesign, recruiting new engineers, and maintaining accreditation. They represent an opportunityfor the students to transition from coursework to successfully executing a practical designproject. This transition is quite useful for graduating students who will be entering theworkforce.However, the senior level capstone experience leaves many educational opportunitiesunaddressed or undeveloped. Learning to do good design work is a skill set that is bestdeveloped
bring together for the firsttime, the knowledge they have been developing in analog, digital and software design. Inaddition, it is also the best place in the curriculum to introduce the students to product designprinciples for the first time and have them develop a fully-functional prototype of an electronicsproduct.To this end, while the lecture portion of the course still covers traditional instrumentation topics,the faculty has developed a new course project that integrates all of these elements into acomprehensive learning experience where the students design, implement and test a networked“smart” sensor. The project not only requires the students to design and simulate a sensor withsignal conditioning, they also have to interface their
Paper ID #23537An Integrated Supplemental Program to Enhance the First-year EngineeringExperienceDr. Ordel Brown, Northwestern University Dr. Ordel Brown is an instructional professor in the McCormick School of Engineering and Applied Science at Northwestern University, where she currently teaches first-year engineering design courses. Her research interests in engineering education include the identification of variables that impact the first- year experience and the development of strategies to enhance it, retention of underrepresented populations in STEM fields and service-learning in engineering.Robin A.M. Hensel
& Exposition Copyright 2001, American Society for Engineering EducationIn selecting the Connections students, we decided to recruit “average” CSM students because wewanted our program to be an enrichment program for typical CSM students, not for thoseentering with academic deficiencies or for those with advanced placement. Therefore, weextended an invitation to join the program to all incoming students who would be enrolled in thenormal core curriculum and then selected the participants randomly from those who indicated aninterest in the program. As Table 1 indicates, the incoming SAT and ACT scores of Connectionsstudents are similar to those of incoming students in their cohort, though the SAT scores forConnections