in economy, technology, culture, and sciences.Contrary to several other places in the developing world, Latin America and theCaribbean have already established several nuclei of technical excellence, which may beeasily observed by several cultural and technological achievements, which include theexistence of leading universities and several very good schools of engineering. Thesenuclei of modern culture are important seeds to bridge the knowledge divide, and, inparticular considering the schools of engineering, these nuclei may play an important andleading role in the process of fostering a high-tech industry led economic and socialdevelopment.The Hemisphere of the Americas is now being challenged by the need for a morehomogeneous economic
Session 2793 Introducing Teachers to Engineering Practice Leroy J. Oberto, Sheryl A. Sorby School of Technology/Engineering Fundamentals Michigan Technological University Houghton, MichiganAbstractMichigan Technological University has developed a new Master of Science in Applied ScienceEducation for inservice teachers. As part of this program, teachers will be required to complete a12-credit applied science core focusing on real-life engineering applications of math and science.The first of the courses from this core
AC 2011-819: ENGINEERING ENTREPRENEURSHIP: LEARNING BYDOINGErik Sander, University of Florida Erik Sander began his career as a Project Manager and Senior Engineer analyzing advanced fighter aircraft engines and the Space Shuttle Main Engine for NASA, Lockheed Martin, General Electric, and Pratt & Whitney. He was also a Technology Transfer Officer for Lockheed Martin and the NASA Marshall Space Flight Center. Starting in 1995, Erik joined the faculty of the University of Florida College of Engineer as Director of the University Center, Associate Director for the Engineering Research Center and the Florida Energy Systems Consortium, and Director of Industry Programs - all directed at fostering industrial
2006-868: ENHANCING MATHEMATICS INSTRUCTION WITH ENGINEERINGDESIGNM. David Burghardt, Hofstra University Dr. M. David Burghardt is Professor, Chair of the Engineering Department, and co-Director of the Center for Technological Literacy at Hofstra University. He is the author of 11 engineering and technology education texts, numerous publications, and teaches a course on children’s engineering for in-service elementary school teachers.Krowles Christine, Plainview School Distict Christine Krowles is a fifth grade teacher in the Plainview School District and a graduate the MA/MST program at Hofstra University
Paper ID #14801Teaching Practices Inventory for Engineering EducationDr. Sheng-Jen ”Tony” Hsieh, Texas A&M University Dr. Sheng-Jen (”Tony”) Hsieh is a Professor in the Dwight Look College of Engineering at Texas A&M University. He holds a joint appointment with the Department of Engineering Technology and the De- partment of Mechanical Engineering. His research interests include engineering education, cognitive task analysis, automation, robotics and control, intelligent manufacturing system design, and micro/nano manufacturing. He is also the Director of the Rockwell Automation laboratory at Texas A&M
strength in pattern recognition, analyzing and improving organizational systems. He is internationally recognized, has contributed to scholarship more than 200 books, articles, presentations and reviews on software development methodologies, manage- ment, organizational change, and program management. Dr. Springer sits on many university and com- munity boards and advisory committees. He is the recipient of numerous awards and recognitions; most recently he was awarded the Purdue University, College of Technology, Equity, Inclusion and Advocacy Award. Dr. Springer is the Chair of the Continuing Professional Development Division of the American Society for Engineering Education, as well as the President-Elect of the
, and mathematics are critical skills for our modern world. Inorder to understand this world, it is vital to foster engineering and technological literacy amongall people, starting with young children. Technology and engineering are new fields at theelementary school level; however, this is where such education needs to start. Just as it isimportant to begin science instruction in the primary grades by building on children’s curiosityabout the natural world, it is crucial to begin technology and engineering instruction inelementary school by fostering children’s natural inclination to design and build things, and totake things apart to see how they work.1 It is during primary school that students establish firstimpressions of possible career
on substantial interviews with faculty and students from acrossa broad spectrum of disciplines, including economics, English, history, chemistry, management,and biotechnology. This paper reports on the use of the World-Wide Web for preparation ofcourse materials, and on lessons learned to date in developing and offering the new type ofelectrical engineering service course.IntroductionOpportunities for fundamental changes in many professions have arisen due to new modes forinformation creation, storage, transmission, retrieval, management, and display. However,familiarity with the use of the technologies central to this revolution is often limited to a smallpopulation of individuals with a deep (and rather narrow) education in electrical
liquid (GTL) technology, and development of catalysts for the petrochemical and environmen- tal industry besides development of engineering education models. He holds several US and European patents and tremendous publications in form of peer reviewed journal articles and conference proceed- ings as well as conference and industry technical reports publications. Dr. Elbashir completed research studies on design of reactor technology and applied catalysis for several world-leading companies (BASF Corporation, and SABIC R&T). He is currently leading a research team with multi million dollars fund in collaboration with researchers from nine prestigious universities around the globe and with scientists from world
metrics isdescribed and the results from seven engineering schools are explored. The paper includesseveral samples of aggregate results demonstrating both the benefits and challenges of collectingsuch information.Based on the experience of the seven institution members of the Gateway Coalition forEngineering Education, we describe in detail the steps taken to define objectives and the metricsused to measure progress. The goals of the Coalition are derived from the common interests,vision, and expectations of the collective body of individual institutions and supported by thefacilitating role and influence of cross-coalition support functions, such as outcome assessmentand technology. The Coalition has defined six major functions and related
Session 2660 Working with Projects in Engineering Education Claudio da Rocha Brito, Melany M. C. T. da Rocha Brito Catholic University of SantosAbstractPresently there is a general assent that for the future the new professional has to have some extraabilities to be able to compete in the new global work market. The world has started a new era,the era of global economy where technology and scientific knowledge are moving the worlddevelopment in a very fast way. Now the professional competence is measured not only by thework that a man can realize but also by the results that he gets. And so
Session # 3630 Teaching Teachers to Teach Engineering Baaba Andam, Glenn W. Ellis, Susan Etheredge, Domenico Grasso Smith College, Northampton, MA Thomas Gralinski Amherst Regional High School, Amherst, MAABSTRACTMassachusetts is leading the integration of engineering into K-12 education by adopting astatewide science and technology/engineering framework. To meet the need for teachers whocan deliver this curriculum, we have assembled an interdisciplinary team from Smith Collegeand Amherst Public Schools to design a workshop for pre
American students have not seen commensurate increases in engineering fields.Diversifying the undergraduate engineering population has important consequences for ournation’s ability to meet the increasing demands for a larger technological and scientific laborforce. While diversifying engineering in the aggregate is both timely and critical, it is equallyimportant to consider the level of diversity within each engineering discipline (e.g., Mechanical,Civil, Electrical, Chemical). When engineering disciplines are disaggregated, it is clear that somedisciplines are less diverse than others. Focusing on diversity at the discipline level has importantimplications for the design of effective department level programs and curricular interventions
Member of International Monitoring Committee in IGIP, Council Member of "International Council for Engineering and Technology Education" (INTERTECH), Board Member of “Global Council on Manufacturing and Management" (GCMM) and Director of Brazilian Network of Engineering (RBE/SP). He was President of Brazilian Chapter of Education Society of the Institute of Electrical and Electronics Engineers, Inc (IEEE-EdSoc), Member of Administrative Committee of Education Society of the Institute of Electrical and Electronics Engineers, Inc (IEEE-EdSoc) in USA, Secretary of Santos region of SBPC - Brazilian Association for the Advancement of Science, Adviser for International Subjects of the
engineering programs for the same dwindling supply ofstudents. To more effectively identify and target graduating high school students interested inpursuing higher education in an associates program in Electronics and Computer Technology(ECT) or bachelor programs in Electronics Engineering Technology (EET) or ComputerEngineering Technology (CET), DeVry University, Pomona campus has evaluated the use ofgeographic information systems (GIS) to synthesize, analyze, and display relationships betweenspatial data and database attributes to reveal hidden patterns and trends that are not readilyapparent using basic spreadsheets or statistical packages. This paper is an exploratory study ofthe early use of GIS at DeVry University, Pomona, to data mine using
Session 2132 An Assessment of Power Engineering Education Thomas E. Salem and John G. Ciezki U.S. Naval AcademyAbstractAcademic power engineering programs have been in a state of decline for numerous years.During this same timeframe, technology and the application of power electronics has beengrowing at a rapid pace. Additionally, the utility industry has experienced a dramatic change inregulation, the end of the Cold War has reshaped U.S. defense considerations and impressed newrequirements on military systems, and the U.S. economy has both soared and slumped
technologically based shows were conceived, designed, and operated by peoplewith a theatre background. Theatre has always had a technical side to it, but this has typicallymeant the ability to construct scenery, specify and set up lights, and a variety of other issues intraditional theatre. With the computer era came the ability to automate shows and to control Page 10.581.1 Proceedings of the 2005 American Society for Engineering Education Annual Conference & Exposition Copyright © 2005, American Society for Engineering Educationspecial effects that were not thought possible just a few years earlier. Although some
vehicle, the nature of unstructured problems is defined andapproaches for engaging this issue in an engineering curriculum are suggested. In particular, theneed for the development of strong professional skills and global awareness are identified asbeing essential. Increased integration of professional skills development into an engineeringcurriculum is detailed.IntroductionU.S. engineering students have historically enjoyed relatively high employment rates ongraduation. Recent trends in the offshore outsourcing of high technology jobs are introducinguncertainty about the long term future of U.S. engineering employment. The globalization ofcareer competition, while well-recognized by now1, is nevertheless an issue that is diffused anddifficult to
two universities are already linked through grant activity in the Carolinas MicroOptics Triangle. The new program will have an emphasis on optical communications andphotonics. Graduates are expected to be the process and test engineers for the photonicsindustry.Intr oduction:The University of North Carolina at Charlotte (UNC-Charlotte) has a strong Electrical andComputer Engineering (ECE) Department, with close ties to the Department of Physics andOptical Sciences. Western Carolina University (WCU) has a Department of EngineeringTechnology with programs in Electrical and Computer Engineering Technology (ECET) andTelecommunications Engineering Technology. To reflect the addition of the new engineeringprogram, the Department will now become
, thephysical setting, the living environment, the human organism, human society, the designedworld, the mathematical world, historical perspectives, common themes and habits of mind.The use of the word “technology” in the Benchmarks refers to engineering and at the K-6 level,also known as children’s engineering. The New York MST Learning Standards are closelylinked to them,as many professionals collaborated on both projects. Page 5.210.2 Session 2530For instance, in the benchmarks for the designed world indicate what students should know atthe end of second grade
needs, working to endpoverty, or providing students with cross-cultural design experience in preparation for careers ina globalized economy, numerous small-scale engineering projects have proliferated indeveloping countries, either driven by or with participation from U.S. engineers and engineeringstudents. Many different models have been employed to this end, curricular and co-curricular, incollaboration with foreign governments, educational institutions or non-governmentalorganizations, with entrepreneurial, sustainable, appropriate technology and/or community-basedapproaches to design.These engineering projects are occurring in the context of globalization and broader economicdevelopment efforts. It is important that we in the engineering
Paper ID #45747Fostering Entrepreneurial Mindsets: Designing Foundry-Guided Strategiesto Develop Interdisciplinary Skills in Student TeamsDr. Robby Sanders, Tennessee Technological University Dr. Robby Sanders is an Associate Professor at Tennessee Technological University (TTU) in the Department of Chemical Engineering. He obtained his Bachelors of Science in Mechanical Engineering from TTU, and his Master’s and PhD in Biomedical Engineering from Vanderbilt University.Dr. Andrea Arce-Trigatti, Tennessee Tech University Andrea Arce-Trigatti holds a PhD in Education from the University of Tennessee, Knoxville. As an
and H. L. Carlson, “Multi-media in Higher Education, A Practical Guide to New tools forInteractive Teaching and Learning,” Learned Information, Inc., 1995. B. T. Hakes, “Compressed Video for Instruction: Operations and Applications,” Association forEducational Communications and Technolo=, 1995. J. Jeffocate, Multimedia in Practice, Technolo w and A~~lication, New York: Prentice Hall, 1995. DAVID L. HUGGINS, Associate Professor Engineering at Penn State Univesity, New KensingtonCampus has taught engineering and technology courses for twenty-eight years. He has been Coordinator of allMechancial Engineering Technology programs within the Penn State Commonwealth Education System for thepast ten years. He has been active in the
Session 2756 Digital Imaging for Engineering StudentsKauser Jahan, John Chen, Shreekanth Mandayam, Robert Krchnavek, Beena Sukumaran, Yusuf Mehta, Jennifer Kadlowec, Parin von Lockette and Robi Polikar Rowan University, College of Engineering Glassboro, NJ 08028AbstractA multidisciplinary team of engineering faculty members at Rowan University are integratingdigital imaging technology (DIT) into their undergraduate engineering curriculum. This excitingeffort is based upon the experience and interest of faculty to promote new topics and innovativemethods of
1 Complexity in Engineering: The Silent Killer Day W. Radebaugh Assistant Professor of Philosophy Department of Philosophy Wichita State University Wichita, Kansas 67260AbstractA review of the list of recent technological disasters suggests that the risk to society oflarge-scale engineering projects has grown in proportion to the complexity of thedesigned system. Illustrative cases include the Challenger explosion, the power gridblackouts of
CONNECTING ENGINEERINGEDUCATION AND PROFESSIONALPRACTICEDavy McDowell, PE – NCEES COONCEES missionThe mission of NCEES is to advance licensure forengineers and surveyors in order to protect thehealth, safety, and welfare of the public. Degrees Conferred Compared to Actual FE Usage Source: AAES and ASEE Profiles of Engineering and Engineering Technology Colleges100,000 Degrees Conferred 90,000 Total FE Exams 80,000 70,000 60,000 50,000 40,000 30,000 20,000 1994 1995 1996 1997 1998
in the design, development and articulation of curricula for educating manufacturing engineers in the United States and in selected off-shore venues. He has also been an occasional contributor to Surface Mount Technology Association and Institute of Electrical and Electronics Engineers. In 2010, Dr. Wells was honored with the Joseph A. Siegel International Service Award by SME. He has also received manufacturing educator awards from ASEE and been included in several Who’s Who publications. Prior to joining NDSU, Dr. Wells held manufacturing engineering and management positions in energy, aerospace, commercial sheet metal and automotive industries for twenty-six years. He also held a faculty position at University
Multidisciplinary Programs: Session 2171 Developing a Multidisciplinary Engineering Program at Arizona State University East Campus Chell A. Roberts, Albert McHenry College of Technology and Applied Science, Arizona State University EaseAbstractThe purpose of this paper is to present an update on the planning of a new engineeringprogram and Arizona State University (ASU) East. Planning began in the Summer 2003and implementation is expected in 2005. This paper presents a background of ArizonaSate University East Campus and discusses the need for a new engineering program atASU. A draft set of program
Paper ID #11931University Maker Spaces: Discovery, Optimization and Measurement of Im-pactsMr. Ricardo Jose Morocz, Georgia Institute of Technology Ricardo graduated with honors from the University of Florida with a Bachelor’s degree in Mechanical Engineering in May of 2014. He started his Master’s degree in Mechanical Engineering at the Geor- gia Institute of Technology in Fall of 2014. He joined the Innovation, Design Reasoning, Engineering Education, and Methods (IDREEM) Lab. Ricardo is currently working on measuring the impact of uni- versity maker spaces like the Invention Studio on students’ retention in STEM
AC 2009-1617: ENGINEERING DESIGN IN THE CREATIVE AGERobert Fleisig, McMaster UniversityHarry Mahler, Ontario College of Art and DesignVladimir Mahalec, McMaster University Page 14.548.1© American Society for Engineering Education, 2009 Engineering Design in the Creative AgeAbstractMcMaster University has initiated a new graduate program in engineering practice aimed ateducating tomorrow’s engineering design leaders. Graduates of engineering schools are wellversed in technology and its application but must acquire new skills and competencies ininnovation and design in order to become global leaders in their industries. The leading thinkersin engineering design