with Barriers Cohesive and Effective Research and Economic Development Management Team University Economic Development Officers and Medical & Non-Medical R&D LeadersFOCUSED Mission driven 20 Project Activities - Still Same Key Leaders IMPACTFUL Education and Outreach Strategic Plan Trans-ERC Courses Fall 2013 “Advanced Imaging Techniques” by Dr. Linsey Phillips/NIH SPIRE Fellow Fall 2014 “Regenerative Engineering” by Dr. Y. YunSp 2014/Sp 2015 “ Principles of Metallic Alloys for BiologicalApplications” by Dr. Prashant KumtaRevolutionary Innovation through Convergence of Disciplines Thrust Areas: Quad Chart ApproachSIGNIFICANCE
Engineering Education, 2007 Design Oriented Course in Microprocessor Based ControlsAbstractPreviously, the microprocessor based control class at Texas A&M University - Kingsville hasbeen taught using lecture based class material and microprocessor simulators to illustratemicroprocessor operations and control system issues to students. “However, students learn moreand get more engaged in a project oriented learning environment.”16 For this reason the coursehas been completely restructured to include a practical design project as opposed to onlysimulations that will enable the students to directly apply the knowledge that they have gainedfrom the course. This experience “will enable the students to gain a greater understanding of
, Transatlantic Collaboration Between Four Engineering, Design and Technology Institutions1.0 OverviewThis paper describes the goals and progress made in Year 1 of a 4-year project (December ’07 toNovember ’11) entitled the DETECT Exchange Mobility project. The project is one of twofunded by the European Commissions/US Department of Education under the EU-Commission’sAtlantis “Excellence in Mobility” Action 2007.The project is funded to promote translational exchanges between four leading Engineering,Design and Technology Education institutions namely; The Pennsylvania State University, USA,Purdue University, USA, the Dublin Institute of Technology, Ireland and the HochschuleDarmstadt, Federal Republic of Germany.The overall
introduction to engineering design course.We draw from a pilot project that used writing/communication assignments to improvethe teaching of engineering design. We based our approach on the “writing across thecurriculum” (WAC) movement’s premise that verbal composition is an analog forthinking and that communication artifacts can be used to infer student learning incomplex problem-solving situations.CPR™ -- as an advanced form of educational technology -- partners both with the studentand with the instructor to monitor learning through formative assessment. In this project,through the vehicle of CPR™, we were able to implement assignments that fully utilizethe WAC pedagogy, without overly increasing the workload for instructors. Furthermore,CPR™’s
curriculum,from introductory classes to the graduate program. Most of our mid- and upper divisionclasses have a lab associated with them. We also emphasize projects, whether design oranalysis, in most classes, and we provide opportunities for students to engage in manyextracurricular projects.Recently, there was a series of discussions held on campus related to the differencesbetween learn-by-doing and project-based learning. Most faculty involved in thesediscussions agreed that although these two philosophies share many attributes, and eventhough they are both very legitimate ways of approaching education, the learn-by-doingphilosophy is more encompassing. For example, both pedagogies do involve projects;however, learn-by-doing can be accomplished
. She holds BA, MS, and PhD degrees. Page 14.1071.1© American Society for Engineering Education, 2009 Start Earlier, Prepare Better: An Engineering Senior Seminar CourseAbstractThis paper describes a seminar course offered to senior engineering students to prepare them fortheir senior design projects and to prepare them for their future professional careers.Most undergraduate curricula, especially in the field of engineering, include senior design as oneof the capstone courses. Successful senior projects demonstrate the knowledge and problem-solving abilities of students as well as
3 3D Art and Fundamentals of Flight – Plane Building Done 4 3D Art and Web Design-I – Plane Flying Starts 5 Exam I and Web Design-II 6 Instrumentation and Web Design-III – Final Project Assigned 7 Circuits and Engineering Math 8 Timers, Flip Flops and other ICS, Exam-II 9 Temperature Satellite and How Things Work Launching Temperature Satellite, Recording, Analyzing Data, and 10 Presentation of Final Project – Plane Flying Endsinvolve building a bridge using K’NEX parts that is then tested to collapse, building and flyingof an electrically powered
Aspects in Architectural Design course in a college ofarchitecture, which focuses on experiential learning activities in the design studio. The designprocess is tackled from three geometrical complexity directions: tessellations, curve surfaces,and subdividing space by solids. Mathematical needs in architecture design and relevantlearning methods were selected from interviews with practicing architects and educationalliterature. The course evaluation was based on observations, attitude questionnaires, projectportfolios and interviews. Portfolio's assessment criteria focused on the project contents,design solutions and mathematics applications. Results of the course follow-up revealed avariety of mathematically-defined complex geometrical shapes
Tech Engineering Technician with Inovar. He received his BS de- gree in Computer Engineering from Utah Valley University. His research interests include microcontroller programming with real-life applications regarding the medical field and finding reliable, cost efficient re- placements for known and accepted devices. c American Society for Engineering Education, 2019 Design of a Bluetooth-Enabled Wireless Pulse OximeterAbstractCapstone courses play a crucial role in Computer Engineering (CE) curricula. The principlepurpose of a Capstone project course is to offer a summative opportunity for graduating seniorengineering students to apply their professional skills and knowledge in a single
since 2011. During his industrial experience, he worked on several infrastructure projects, some of which included airports, highways, and municipal roads. His technical background and project experience in infras- tructure projects includes in-depth knowledge of the nondestructive and destructive testing of pavements, infrastructure condition surveys, and pavement investigations related to airports, highways, and municipal roads. He worked on infrastructure evaluation, analysis, and design projects for the Ontario Ministry of Trans- portation; the Alberta Ministry of Transportation; the Saskatchewan Ministry of Transportation; and the cities of Hamilton, Calgary, Ottawa, and Wood Buffalo. These projects entailed
University of Central Florida respectively. c American Society for Engineering Education, 2020 Self–Initiative Undergraduate ResearchAbstractThis paper describes an undergraduate research project conducted at a liberal arts institutionduring the summer of 2019. The undertaking was distinctive in that it was an engineering projectconducted at a liberal arts college by undergraduate students enrolled in the college’sengineering program. A multidisciplinary research team was assembled, composed of studentsmajoring in civil, chemical and mechanical engineering.It should be emphasized that this seven-week program was designed to serve primarily as alearning experience for the student researchers
Integrating ‘Design Challenges’ Into a Freshmen Introduction to Mechanical Engineering CourseIntroductionIt is currently widely recognized that retention of engineering students can be enhanced byincluding introductory engineering courses into the first-year engineering curriculum in additionto the usual math and science classes1-3 Moreover, the inclusion of engineering design projectswithin the first-year curriculum, or “cornerstone design projects”, provides students with insightinto the differences between engineering and science, and increase students‟ motivation andinterest in engineering4-11. One team of researchers has shown that the incorporation of hands-ondesign projects in the first year provides “experiences of
Session 3125 Engineering Design Education: Surveys of Demand and Supply Rudolph J. Eggert Boise State UniversityAbstractTwo surveys were conducted in 2002 to learn more about the demand and supply of specificengineering design topics and activities, resulting in 1006 industry respondents and 182academic respondents.Academia appears to be meeting industry’s demand for Engineering Design Specifications,Teamwork and Overall Design Process topics. However, there appears to be a supply gap inacademia’s current coverage of Creativity Methods, Project management
follows:The logistics and challenges of the last years competitions at the Technical University of Cluj-Napoca (TUCN), Romania and Rose Hulman Institute of Technology (RHIT), Indiana, USA; thesection presents the criteria the organizers used for evaluation of the projects and the methods ofmotivating students into participating in the competitions. It also analyses the growth of thenumber of participants, their affiliation with universities and majors and their orientation towardsdifferent technologies (HDL programming or basic C language usage).The first contest experience at the Sir Padampat Singhania University, Udaipur, India and Indiaand Tsing Hua University, Beijing, China; presents the logistics of the first editions held in Indiaand China
, isdescribed along with students’ assessment in the context of their reflections.IntroductionThe integration of community service projects in undergraduate engineering curricula, to provideexperiential learning, has created a great deal of interest among educators in recent years. Tsang(2000) stipulates that the notion of combining service with engineering design projects is notnew considering that many senior design projects have provided assistive technology to meet theneeds of people with disabilities. Tsang (2000) further discusses the many benefits of service-learning, coupled with design-across-the-curriculum, and the significance of integrating design atall stages of a student’s academic development in a meaningful context. Evidently
fellows serve as a “real-time”resource for the teachers as an engineering activity is implemented. The project has met withmany levels of success and the focus has become how to make the work and accomplishmentsachieved sustainable. The most promising aspect has been to increase the teacher comfort levelwith the material. The challenge comes in presenting the teacher with the right amount ofrelevant material. The process of increasing teacher comfort is outlined. The benefits of offeringengineering education to elementary students became apparent with a 21% gain in standardizedtest score values.Tufts CEEO GK-12 Outreach ProjectThe Tufts University GK-12 project is a three-year project focused on pairing graduate-levelengineering and computer
AC 2011-531: THE MONTANA MULE: A CASE STUDY IN INTERDISCI-PLINARY CAPSTONE DESIGNBrock J. LaMeres, Montana State University Dr. Brock J. LaMeres is an Assistant Professor in the electrical and computer engineering department at Montana State University (MSU). LaMeres teaches and conducts research in the area of digital systems and engineering education. LaMeres is currently studying the effectiveness of online delivery of engi- neering education including the impact of remote laboratory experiences. LaMeres is also studying the pedagogical impact of interdisciplinary capstone projects compared to traditional discipline-specific de- sign projects. LaMeres’ research group is also studying the effective hardware
water and stormwater quality improvement. Page 25.288.1 c American Society for Engineering Education, 2012 Case Study Incorporating Service-Learning in Statics and Dynamics Sequence Courses – The Wheelchair Ramp Design/BuildAbstractThis paper describes how one service-learning project was incorporated and improved throughtwo sequenced courses, Engineering Statics and Dynamics, in a small school with limitedresources and smaller classes.The benefits of service-learning are well documented so including a service-learning componentin engineering courses is a logical educational extension
AC 2011-2689: SMART GRID DEVELOPMENT IN ELECTRICAL DIS-TRIBUTION NETWORKSaeed Sean Monemi, California State Polytechnic University, Pomona Dr. Saeed Sean Monemi is a professor of Electrical and Computer engineering at California State Poly- technic University, Pomona. He has published many papers and currently conducting projects in the areas of smart grid, embedded systems, software engineering, and operating systems.NIpun M PAtelJesse Gurr Graduated with a Bachelors in Electrical Engineering with an emphasis in Power Systems from Cal Poly University in Pomona, CA. One of the seven members in the team that designed and built the ”Smart Grid Development of Electrical Distribution Network” project.Mr. Yee Cheung
School of Business, and other interested departments.Recently, the scope of participation was expanded with the inclusion of students from theEnvironmental Studies department. Where appropriate, graduate students are added to the projectgroup to provide a level of expertise not necessarily available from a team consisting solely ofundergraduates.TEAM is equally beneficial to the students involved and to the industrial sponsor. A uniqueopportunity is presented for students to work together in multidisciplinary teams, which focus onreal projects for industrial clients. TEAM is an academically rigorous exercise, which involvesnon-traditional instructional methods such as problem-based learning, multidisciplinary teams,and self-directed project work
AC 2010-811: THE CURRENT STATE OF CAPSTONE DESIGN PEDAGOGYJames Pembridge, Virginia TechMarie Paretti, Virginia Tech Page 15.1217.1© American Society for Engineering Education, 2010 The Current State of Capstone Design PedagogyAbstractIn the fall of 2009, faculty involved in capstone design courses were surveyed to track trends inthe course structure and to explore current pedagogical practices. Where prior surveys probedcourse logistics, faculty involvement, project coordination, funding details, and industryinvolvement, this survey complements that work by also addressing the teaching beliefs andpractices of capstone faculty. The results provide a basis for
65% of the newly developed 787Dreamliner airframe from outside companies.2 In a field where work is traditionally performedby small, localized teams of engineers, these complex global projects present new challenges forovercoming cultural differences, language barriers, and bureaucracy.With these industry trends set to define a large focus of the next 20-50 years of the aerospaceindustry, educating the next generation of engineers who will be responsible for addressing thesechallenges is of paramount importance. Efforts to train students in the global design effort havebeen reported before, and they were mainly limited to virtual computer design studies and didnot include delocalized manufacturing.3 In different cultures the educational
Session 2425 Herding cats: a case study of a capstone design course J. Paul Giolma and Kevin M. Nickels Department of Engineering Science Trinity UniversityAbstractThe eight-semester design sequence in Engineering Science at Trinity University contains threemini-capstone design experiences (one mechanical, one chemical, and one electrical) and onecapstone design project in the senior year. Senior design is so unlike the well-defined designprojects encountered thus far in the curriculum, even the mini-capstone design projectsencountered
engineering design problem. The objectives of most capstone courses areprimarily design and design implementation. Additional objectives are typically included.Common objectives include teamwork, professionalism, decision making, and communication.Most capstone course structures make these objectives a natural part of the course [1-2]. Forinstance, communication, both written and oral is often an inherent aspect of the course.Programs may also include additional, non-traditional objectives to the course [3]. For instance,many capstone courses focus on interdisciplinary team aspects to help students adapt to workingwith colleagues from differing backgrounds. An intertwined aspect of capstone objectives is thesource from which the capstone projects are
from an individual PV module,through the combiners to the inverters, and then to the transformer at the campus powersubstation. They are also learning about the documentation associated with a project of this size,which spans CAD drawings, impact assessments, and permitting. The team is responsible for thecreation of request for proposal (RFP) that will be issued as a solicitation. A project of thismagnitude also involves important engineering economic assessments since the project cost andpotential is based on return on investment calculations, which must be attractive to prospectivepower purchase agreement (PPA) partners. Students are defining the system that the universityand the winning bidder will create to deliver power for a fixed
Merrimack College’s Haiti Service Learning Initiative Marc Veletzos1, P.E., Ph.D.AbstractMerrimack College’s Haiti Service Learning Initiative (MCHSLI) is a partnership between Project Medishare forHaiti and Merrimack College that benefits both the Haitian population and our students. The Haitian people receivemuch needed medical, developmental and engineering related assistance. The students receive a memorable andrewarding experience and the opportunity to nurture a deeper understanding of relevant discipline specific contentthrough personal connections to the project and the people they meet in Haiti.The initiative began with discussions among faculty and staff members across the college after a
virtual teams during the rapid transition online due to COVID-19 Alexis Walsha, Sarah Norrisb, Nathaniel Blalockc, Daniel Mountainc and Courtney Faberd a) Department of Industrial and Systems Engineering; b) Department of Mechanical Aerospace Biomedical Engineering; c) Department of Chemical and Biomolecular Engineering; d) Cook Grand Challenge Honors Program University of Tennessee KnoxvilleIntroductionTeam projects are common in undergraduate engineering courses and have been shown toimprove self-efficacy, communication, and teamwork skills through group discussions andpresentations, preparing students for professional engineering practice [1], [2
Paper ID #35260Vertically Integrated Engineering Service-Learning: Program DesignDr. Jordan F. Ermilio, Center for Humanitarian Engineering and International Development, College of Engi-neering, Villanova University Jordan Ermilio has been directly involved with the engineering design and implementation of community development projects in countries throughout Southeast Asia, Central America and Africa. He served as a US Peace Corps Volunteer in the Philippines and has worked with Oxfam International in East Timor. He is the co-founder of the Villanova Engineering Service-Learning Program and is currently the director of
address the challenges facinga student-run lab. Case studies of projects are also used to highlight important lessons learnedover the years.1 What is S3FL?Since 1998, the Student Space Systems Fabrication Laboratory (S3FL) at the University ofMichigan’s College of Engineering has combined a formal design process with student creativityand spontaneity to train and provide students with opportunities for research in space systemsdesign and development.1 Each year, S3FL involves over a hundred undergraduate and graduatestudents in realistic and intensive design-build-test activities ranging from balloon payloads tomicrogravity experiments to nanosatellites. By participating in the end-to-end development ofcomplete space systems, students acquire
produce superiorresults. Cognitive diversity can take a variety of forms, but in this work diversity of personalitytypes is explored. The impact of cognitive styles on team performance was evaluated in afreshman environmental engineering (EVEN) course. The students worked on projects involvingcomparative analysis and some calculations, but no design or intrinsically “creative”requirements. Specifically, student teams in 2006, 2007, and 2008 evaluated solid wastelandfills. In 2006 and 2007 the project encompassed three or four periods of in-class directionand work time. In 2008, the project was modified to compare the energy and environmentalimpacts of landfills to waste-to-energy incinerators and included only two class periods withinstructor