forcapturing the highlights of the educational programs offered by the college, with respect to boththeir contents and methods of instruction.I. IntroductionThe proliferation of advanced technologies throughout the global economy demands changes inall aspects of life, including industrial and academic activities. New market opportunities,competitive pressures, and government regulations have triggered a widespread wave of changesacross the industry, in regard with both its technical and business practices. The dynamics ofthese changes propagates, obviously, also to the area of engineering education, since the industryis the "ultimate customer" of universities, where their graduates are to be employed and expectedto pursue professional careers [1
AC 2012-4899: ACCOMPLISHMENTS AND LESSONS LEARNEDDr. Mohammad Saleh Keshawarz, University of Hartford Mohammad Saleh Keshawarz is a Professor of civil engineering at the University of Hartford in West Hartford, Conn.Dr. Hisham Alnajjar, University of Hartford Hisham Alnajjar is professor of electrical and computer engineering at the University of Hartford, Conn. (USA), where he is also the Associate Dean of the College of Engineering, Technology and Architecture (CETA). Before he served for nine years as the Chair of the Electrical & Computer Engineering De- partment at the University of Hartford, he received a Ph.D. from Vanderbilt University and a M.S. from Ohio University. His research interests include
2.62 jobs for American workers—often because they help lead in innovation, research, and development.” According to a 2012 report from the Information Technology Industry Council, the Partnership for a New American Economy, and the U.S. Chamber of Commerce• As of 2010, Immigrants founded 18 percent of all Fortune 500 companies, many of which are high-tech giants, generated $1.7 trillion in annual revenue, employed 3.6 million workers worldwide, and included AT&T, Verizon, P&G, Pfizer, Comcast, Intel, Merck, DuPont, Google, Cigna, Sun, US Steel, Qualcomm, + According to a 2011 report from the Partnership for a New American EconomySample of Arguments for Benefits• ¼ of all engineering and technology-related companies founded in the
AC 2007-1653: AN ONLINE REAL-TIME QUIZ SYSTEM FOR READINESSASSESSMENT TESTINGJoshua Peschel, Texas A&M University JOSHUA M. PESCHEL is a PhD student in Civil Engineering at Texas A&M University. He received the BS in Biological Systems Engineering and the MS in Biological & Agricultural Engineering, also from Texas A&M. His current research interests include unsaturated soil water transport, spatially-distributed hydrologic modeling, and emerging technologies in engineering education.Luciana Barroso, Texas A&M University LUCIANA R. BARROSO is an Associate Professor of Civil Engineering at Texas A&M University. She is a graduate of Rice University and received
The University of Maine’s Advanced Manufacturing Center: Lessons Learned During the First Two Years of Operation By Thomas E. Christensen, Scott C. Dunning University of Maine Advanced Manufacturing CenterAbstractThe University of Maine’s College of Engineering has created an Advanced ManufacturingCenter with a student-oriented mission. This center provides a distinctive engineering approachto solving manufacturing problems and gives Engineering Technology students hands-onexperience working on engineering and manufacturing projects. With much of the center’s workcoming from off-campus businesses; the students gain
Session 3433 Utilizing Advanced Software Tools for Classroom Projects in Control and Power System Studies Fanis Chalkiadakis , Recayi Pecen Electrical and Information Engineering Technology Department of Industrial Technology The University of Northern Iowa, Cedar Falls, Iowa1. IntroductionStudies in control and electric power systems have always been a major part of the core courserequirements of every electrical engineering and/or electrical engineering technology program.In recent years however, undergraduate and
improvement werecollected, considered and the tutorials were modified and improved accordingly. The upgradedtutorials were then pilot tested with one hundred and forty seven, fourth and fifth yearengineering students in the spring of 2001. This pilot test indicated the computer tutorials wereeffective (See Merino and Abel 2002), so the authors augmented the sample by addingapproximately 325 additional fourth and fifth year students who participated in the spring,summer and fall of 2002. This gave a total population of 474 possible responses. All studentswere enrolled in an Engineering Economy class that is a required core course for all StevensInstitute of Technology engineering students, regardless of discipline. All tests were distributedin the lab
theeducational community.Selected Educational Awards to Members of the Project Team: • 3 NSF CAREER Awards (integrating research and education) • 3 ASEE Dow Outstanding New Faculty Awards • 4 OU teaching and research awardsAwards for the Sooner City Project • NSF Course and Curriculum Development Award (seed money for concept) • NSF Action Agenda for Systemic Engineering Education Reform (major funding source) • Oklahoma Regents Instructional Technology Excellence Award (1999) • Oklahoma's Williams Faculty Innovator Award (2000)Other Project/Individual Recognition • 5 Invited Presentations at National Conferences (1998 and 1999 ASEE/NSF Project Showcase, 1998 and 2002 ASCE
Session 3586 Case Study Development under the TEFATE Project* Susan Randolph Jackson State Community CollegeThe Tennessee Exemplary Faculty for Advanced Technological Education(TEFATE) project was the result of a National Science Foundation ATE grantdesigned to educate an interdisciplinary group of faculty who would provideleadership in communications technology curriculum development1. A primaryproduct of this project was twenty-five case studies designed to deliver academiccontent and develop problem-solving skills in engineering technology courses.Each of the twenty-five cases joins academics with the workplace
,making the renewable energy based electricity one of the alternative. Today the renewableenergy is one of the most rapidly growing rapidly energy industry. Over the last decades therenewable energy has gone through significant technological advances and extended uses forelectricity and other industrial applications. One the other hand, the industry has significantlyincreased its demands for qualified engineers who can understand and cope with the difficultiesinherent in the wide range of disciplines involved in these technologies. Universities areintroducing renewable energy courses into their curricula, to empower students to work in thisrapidly developing industry. Renewable energy technologies are highly interdisciplinary and arecrossing over
worldwide research partners inAlcatel’s Preferred Partner program. Industry leaders have joined with UT-Dallas and the ErikJonsson School to conduct research, share resources, enhance educational opportunities, anddevelop new technologies. The School of Engineering and Computer Science is composed oftwo departments, Electrical Engineering and Computer Science. The total enrollment for thesetwo departments in the fall of 2001 was 3600 students.UT-Dallas offers a wide variety of program through its various schools and programs. Theseschools include the Schools of Engineering and Computer Science, Management, Art andHumanities, Human Development, Natural Science and Mathematics, Social Science, andGeneral Studies. The university supports 20 doctoral
on the board of the Canadian Engineering Education Association. She teaches courses that focus on professional skills, engineering practice and project management.Dr. Geoff Rideout, Memorial University of Newfoundland Geoff Rideout received his B.Eng. (Mechanical) from Memorial University of Newfoundland in 1993. After working in the manufacturing and building systems consulting industries, he earned his M.A.Sc. in Mechanical Engineering from Queen’s University in Kingston, Ontario and his Ph.D. in Mechanical Engineering from the University of Michigan. He has lectured at the University of Michigan and at the Humber Institute for Advanced Technology and Applied Learning in Toronto. He is currently an Associate
Paper ID #19195MAKER: Security Gadget for Tirumala PilgrimsDr. Hugh Jack P.E., Western Carolina University Dr. Jack is not the author. This abstract has been submitted on behalf of A. M. Sasidhar Reddy , B. Sukumar, C.C. Nikhil - Sri Venkateshwara College of Engineering, Tirupati, India c American Society for Engineering Education, 2017 Security Gadget for Tirumala Pilgrims A. M. Sasidhar Reddy , B. Sukumar, C.C. Nikhil Sri Venkateshwara College of Engineering, Tirupati, IndiaAbstract Now-a-days need for security makes many people look for
CEO, co-founder, former Co-founder, co- UC Davis professor oversight authors,Programming in MATLAB UC Riverside professorProgram. Embedded SystemsDigital DesignData Structures EssentialsComputing Technology for All Scott Sirowy, Kathleen Hayes, Russ Anderson, Roman Lysecky,Computer Organization & Design Engin. Director, VP of Sales VP of Finance Assoc. Prof. of ECE,Material and Energy Balances UCR CS Ph.D. Univ of Arizona, co
The 21st Century Opportunity• Global economy requires a diverse workforce• U.S. population becoming more diverse• Huge potential for STEM workforce development among underrepresented minority groups• Focus on Detroit What is “The MEZ”?• Safe, supportive, and collaborative workspace• Home to 18 Detroit FIRST Robotics teams, summer camps, and additional programming for middle school students What is “The MEZ?”• Established in January 2010• Collaboration between University of Michigan College of Engineering, Detroit Public Schools, EAA, Charter Schools, and FIRST (For Inspiration and Recognition in Science and Technology) Who is “The MEZ”?• 270 Detroit high school students and their families• 35
the desire to enlighten many is strong, the toolis a weak one without preparation and understanding. Instructors must be creative or face dismalfailure! IUPUI has offered engineering technology courses within the biomedical electronicsdivision of the electrical engineering department nine times over an eighteen-month period, withmany more semesters planned. The many trial and error experiences IUPUI are marvelousopportunities for observation and imitation.The courses discussed in this paper are asynchronous. Students have no set time to “meet.” This Page 6.908.1allows for flexible student participation, often working around employment
I .— - ...... .. Session 3264 -.. . Polymers for Biotechnology and Bioengineering Lisa Brannon-Peppas Biogel Technology, Inc. While many of the early biomaterials had their origins in non-medical applications, the polymersbeing developed today as biomaterials are targeted quite specifically for biological use. These materials aredesigned for particular uses, whether that be
Application of Multimodal Software Tools to Teach Problem Solving Skills Paul Blowers (blowers@engr.arizona.edu) Department of Chemical and Environmental Engineering PO Box 210011 The University of Arizona Tucson, AZ 85721-0011 Many faculty members have attempted to apply new technological advances in classroom settings toimprove pedagogical approaches, increase student learning, and to run classrooms more effectively. Unfortunately,many of the approaches of applying these new tools do not accomplish these goals. This
Paper ID #12626Worldwide Digital Design Contest: A Decade of Development and SuccessDeveloping Students’ Hardware and Software SkillsDr. MIHAELA RADU, SUNY Farmingdale State College Dr. Mihaela Radu received a Ph.D. in Electrical Engineering from the Technical University of Cluj- Napoca, in 2000 and the M. Eng. degree in Electronics and Telecommunications Engineering from the Polytechnic Institute of Cluj-Napoca, Romania. Before joining the Department of Electrical and Com- puter Engineering Technology at Farmingdale State College in 2012, Dr. Radu was a faculty member of the Applied Electronics Department at The Technical
. “Proceedings of the 2005 American Society for Engineering Education Annual Conference and Exposition Copyright © 2005 American Society for Engineering Education”The CurriculumFollowing is the KSU-created reliability-centered manufacturing curriculum with emphasis onthe traditional predictive maintenance technologies: thermal imaging, oil analysis, vibrationanalysis, and ultra-sonic analysis. Introductory, intermediate and advanced level workshopswere created and presented. Introduction to RCM • 4-hour course. • Presented to entire maintenance staff, production managers and supervisors, and upper management. • Topics addressed: o
University,and the University of Tulsa. The objective of the project is to develop a new curriculum for teachingundergraduate and graduate students multiphase computational fluid dynamics for advanced design.The impact of multiphase flow research on solving practical engineering problems is an integral partof the learning experience. Industrial participants in the project provide specific design problemsrelated to emerging technologies. Students are taught the fundamentals of computational fluiddynamics (CFD) during a one-week workshop. This is followed by an Internet course on multiphasetransport phenomena. The students work in teams on CFD design problems with a faculty andindustrial mentor. The salient results of this NSF/CRCD project are
Articulation Partnerships with Accredited Non-traditional Programs Arnold Peskin/Excelsior College Walter Buchanan/Northeastern UniversityAbstract:Many Engineering Technology Students earn their degrees through the ‘2 plus 2’program model. The first two years are often spent in community colleges, but finding asuitable institution for completing the Bachelor’s Degree can prove to be a challenge.This is especially true for students whose personal circumstances inhibit them fromenrolling and completing their degree at a conventional school.Excelsior College was founded to make college degrees more accessible to qualifiedbusy, working adults. It focuses on what its students know, rather than
educational effort to improve student retention in introductoryelectronics and network analysis course offered at a university in northeastern United States. Ituses a new media-based tutorial and mini project intended to engage students in their studies.The paper, also seeks to study the effects of technology mode of instruction that complementsconventional mode of instruction. This development, as well as lessons learned in the first threeyears of technology mode of instruction in introductory engineering courses (namely Electronicsand Network Analysis) is evaluated numerically. A concluding section is offered that discussesthe benefit of balancing conventional mode of instruction with technology mode of instruction.INTRODUCTIONThis paper examines
scaffolding mentors understanding of cutting edgecollaboration technologies in A/E/C. The paper discusses implications for the design ofP5BL environments, processes and implications for university and industry relationships.IntroductionIsolation of Architecture/ Engineering/Construction (A/E/C) students within discipline-specific education has impacted graduates ability to function within interdisciplinarydesign teams when they enter industry. Not only are new graduates commonly hamperedby poor cross-disciplinary communication, coordination and negotiation skills, theyemerge from educational institutions with narrow perceptions of what it means toparticipate in the design process as a member of their specific discipline.P5BL - the People- Problem
going to motivate students towant to learn about and engage in sociotechnical thinking in their engineering classes, then wemust frame it around issues that students already care about and/or questions they have. We mustpresent students with interesting problems and ask them to engage with the topics in a personalway–asking their own questions about the implications of technologies and applying theideas/questions to their life. Finally, “we have to give the students opportunities to respond inauthentic ways” such as in discussions, and reflections rather than exams. [2]Much of the curriculum for engineering education is singularly focused on technical fundamentalsand the design of systems. While these methods of study are undoubtedly useful to
Session 1625 Facilitating Distributed Collaborative Product Development in an Undergraduate Curriculum Tord W. Dennis, Robert E. Fulton Georgia Institute of TechnologyAbstractIn the quest to be more competitive, many corporations have embraced Lean Management, Just-In-Time and Total Quality Management coupled with cutting edge Information Technology. ComputerAided Design (CAD) and Computer Aided Engineering (CAE) tools enable engineers to efficiently andquickly realize and simulate concepts virtually, reducing the need for expensive prototyping and
Changing Profession,” Aerospace America, October 2002, pp.24-352. Noor, A.K., “Perspectives on Advanced Learning Technologies and Learning Networks and Future Aerospace Workforce Environments” Advanced Learning Technologies and Learning “Proceedings of the 2004 American Society for Engineering Education Annual Conference & Exposition Page 9.385.6 Copyright © 2004, American Society for Engineering Education” Networks and Their Impact on Future Aerospace Workforce (Ed. A.K. Noor), NASA/CP- 2003-212437, September 2003.3. Baylor, A.L., “Systematically Designing Pedagogical Agents: Effects of Image
Curricular Change: Results of a National Survey.” IEEE Transactions onProfessional Communication, v39 n1 (March 1996): 38-42.4 “2000-2001 Criteria for Accrediting Engineering Programs,” Accreditation Board of Engineering and Technology,Baltimore, 2000.5 Haselkorn quoted in Skelton, T.M. 2002. Managing the Development of Information Products: An ExperientialLearning Strategy for Product Developers. Technical Communication Online 49.1. http://www.techcomm-online.org/issues/v49n1/abs/0500.html6 Quigley, Brooke L. “Designing and Grading Oral Communication Assignments.” New Directions for Teachingand Learning n74 (Summer 1998): 41-49.7 Kryder, LeeAnne G. “Mentors, models and clients: using the professional engineering community to identify andteach
Session 12-6 Network Controlled Data Acquisition Drone Juan Hernandez, Michael Alegre, Dragan Siljegovic, Robie Calong, Farrokh Attarzadeh, Ankur Shukla, Vishal Naik Engineering Technology Department University of Houston AbstractThis paper describes the result of the senior project completed in December 2007 and shows thedetails of the subsystems along with future enhancement to the drone. The project is currentlybeing reviewed by the office of Intellectual Property Management at the University of
underdeveloped and causing problems for women and people ofcolor in the “real” world. A better question might be asked of our students if we should havedeveloped this technology at all?The What Else and Why? GTR challenges students to ask questions related to appropriatecommunication. As applied to engineering education, faculty members might ask students to thinkabout the best way to communicate a finding to different cultural audiences, stakeholders withdiverse backgrounds, or clients with differing abilities. Students need to “slow down” theircommunication to be deliberate with their word choice and phrasing the make the most effectiveimpact.7 It is important to develop and practice these critical “soft skills” in a classroom setting, sothey can