Session 2793 Launching an Undergraduate Engineering Entrepreneurship Program Elizabeth C. Kisenwether, Jack V. Matson College of Engineering Pennsylvania State University University Park, PA 16802AbstractHistorically, entrepreneurship education has been based in business schools, particularly at theMBA and graduate school level. However, with advances in technology driving new productsand companies, engineers are becoming key players in new ventures. Thus, there is
Session 3560 Global Status of Engineering Education -Outcomes of the 1998 Global Congress on Engineering Education at Cracow, Poland Russel C. Jones, Ph.D., P.E. World Expertise LLC Falls Church, VA, USAAbstractThe 1998 Global Congress on Engineering Education was organized around severalmajor themes: effective teaching methods, curriculum design and evaluation, liberaleducation for engineers, use of new technologies in engineering education, current issuesand trends in engineering education, international collaborations
AC 2008-944: PHILOSOPHY, ENGINEERING EDUCATION AND THECURRICULUM.John Heywood, Trinity College-Dublin Biography John Heywood. Professorial Fellow Emeritus of Trinity College Dublin and Formerly Professor of Teacher Education in the University of Dublin. Began life in the Merchant Navy and the Radio Industry. Subsequently taught radio at a London Technical College and undertook research in radio astronomy as Director of the British Astronomical Association’s radio-electronics section. In 1961 he became senior research fellow in technological education at Birmingham College of Advanced Technology, and in 1964 was appointed to the first of two lectureships in higher
Session 1498 Engineering Education in The Netherlands Maarten Uijt de Haag*, Otto Rompelman**, Jos Uyt de Haag***, Brian Manhire* *Ohio University, USA / **Delft University of Technology, NL / ***St. Jans Lyceum, NLAbstractThis paper presents an overview of higher engineering education in the Netherlands. The intentis to give the information necessary for a comparison of the Dutch engineering education systemto engineering education systems in other countries, especially the United States of America.The discussion includes the following topics: the historical development of engineeringeducation in the Netherlands; secondary
aspecific focus on the application of engineering management techniques to engineeringeducation. Concrete examples of this are presented.Vision and Goals of the College of EngineeringStrategic Planning for the College of Engineering began in 1998 with the leadership of anew Dean of Engineering, Dr. W. Arthur (Skip) Porter. By the year 2000 the vision ofthe College was defined to be: “ To produce engineering graduates sought among the firstby industry and investors for excelling in a rapidly changing, technology-driven world,both as engineers and technology managers in existing companies, and as leaders instarting new, technology-based companies.”Three major goals were defined to achieve this vision:1. Cutting Edge Education - Enhance the
Samir I. Abood received his B.S. and M.S. from the University of Technology, Baghdad, Iraq, in 1996 and 2001; respectively, he got his Ph.D. in the Electrical and Computer Engineering Department at Prairie View A & M University. From 1997 to 2001, he worked as an engineer at the University of Technology. From 2001 to 2003, he was a professor at the University of Baghdad and Al-Nahrain University. From 2003 to 2016, Mr. Abood was a professor at Middle Technical University / Baghdad-Iraq. From 2018 to the present, he has worked at Prairie View A & M University/ Electrical and Computer Engineering Department. He is the author of 30 papers and ten books. His main research interests are sustainable power and
AC 2007-2361: ENGINEERING FIELD EXPERIENCE ? AN INTERNATIONALAND CULTURAL PERSPECTIVE FOR CIVIL ENGINEERING STUDENTSWei Lin, North Dakota State University Dr. Wei Lin is an Associate Professor of environmental engineering in North Dakota State University. He also serves as the Director of the interdisciplinary Environmental and Conservation Sciences graduate program. Dr. Lin teaches environmental and water resources courses at undergraduate and graduate levels. His research areas include water and wastewater treatment technologies, wetland studies, and river water quality modeling and management. Before join NDSU, Dr. Lin was a senior engineer with Ecology and Environment, Inc. He has
2006-2065: DESIGN BOOT CAMP: GETTING IN SHAPE FOR A CAPSTONEEXPERIENCERenee Rogge, Rose-Hulman Institute of Technology RENEE D. ROGGE is an Assistant Professor of Applied Biology and Biomedical Engineering. Her teaching interests include orthopaedic and sports biomechanics, biomaterials, capstone design, and introductory level mechanics courses.Glen Livesay, Rose-Hulman Institute of Technology GLEN A. LIVESAY is an Associate Professor of Applied Biology and Biomedical Engineering. He teaches undergraduate and graduate courses on biomechanics, capstone design, experimental design and data analysis, and experimental biomechanical testing of soft tissues
Friday Morning Session 2 - Faculty U.S. ENGINEERING EDUCATION: A GLOBAL PRESPECTIVE Camille A. Issa, PhD, PE, F. ASCE Department of Civil Engineering School of Engineering Lebanese American University Byblos, Lebanon AbstractOver the last several years a number of reports have raised concern about the growing challengeto U.S. science and technology (S&T) leadership – and long-term economic competitiveness –from both rapidly developing Asian nations and
053 Incorporating Six Sigma in Engineering Education Lenore L. Dai Chemical Engineering Department Texas Tech University Abstract Six Sigma is a buzz term in today’s technology and business world. The Six Sigmaapproach combines elements from several quality movements with advanced statisticalmethodology. It is a comprehensive tool combining business concepts with technical skills andleadership skills. Six Sigma has been successfully applied to manufacturing, to research anddevelopment, and to business and financial services. Recently, there has been great interest
present vastly different properties from thoseof bulk materials. While nanotechnology has great potential for beneficial environmental uses,the explosion of nanotechnology-enhanced products raises concerns regarding the adverse effectsof nanoparticles on human health and the environment.The current engineering curriculum at the University of Missouri (MU), like the major of the 300accredited engineering colleges in the U.S., lacks a sustainability component. The AccreditationBoard for Engineering and Technology (ABET) 2000 criteria, however, requires that allengineering students develop an understanding of the impact of engineering solutions in asustainable global context, as well as have “an ability to use the techniques, skills, and
order to meet growing demands for a competitive Science, Technology, Engineering,and Math (STEM) workforce, education must adapt to reflect the skills necessary to besuccessful in these fields and students must be encouraged to maintain interest in thesedisciplines. Digital fabrication offers the opportunity to bring activities that are more like STEMprofessions to students than traditional classroom instruction. Similarly, the engaging nature ofthese activities may improve student attitudes toward STEM disciplines and increase thelikelihood that students will take advanced STEM coursework and choose STEM careers.Digital fabrication involves creating physical objects from a digital design. Though digitalfabrication has been a mainstay of
future pool of qualified high-tech workers andprofessionals, especially underrepresented groups like minorities and women. This program iscomprehensive in that it has two major components: outreach efforts and instructionalmethodologies. 1. The “Engineering the Future” outreach component consists of a comprehensive information campaign about the rewards of engineering and technology professions. 2. The “Education and Training Institute” instructional component implements pre- engineering curriculum in middle and high school classes.This paper will focus on the programs of the “Engineering the Future” outreach component.IntroductionAn ASEE report says, “Engineering education programs must attract an ethnic and
Training the Renaissance Engineer of 2025 By Keith Curtis Technical Staff Engineer Microchip Technology Inc. 2355 W. Chandler Blvd. Chandler, AZ 85224 Office (480) 792-7026 Fax (480) 792-4150 keith.curtis@microchip.com www.microchip.comThe Renaissance man was the evolutionary successor to the specialist of theMiddle Ages. Whereas the Middle Ages man was only a farmer, or a soldier, or abaker; the
Biotechnology and Bioethics in Engineering Education 1 R. Asmatulu, 1W.S. Khan, 2E. Asmatulu, and 1M. Ceylan 1 Department of Mechanical Engineering 2 Department of Industrial and Manufacturing Engineering Wichita State University 1845 Fairmount, Wichita, KS 67260-0133ABSTRACTBiotechnology offers a great deal of opportunities for human to improve the health and quality oflife using new medicines and biomedical devices. However, this technology brings a number ofquestions and concerns about the social, cultural
of thecommonalities and differences will be discussed in this paper.IntroductionWhat distinguishes a BSE and a BSET? Should you care? To answer the question, you mustknow what the letters stand for. In the first case, the E represents Engineering. In the second,the ET stands for Engineering Technology. There may be an even more defining term as eachcan cover specific engineering programs such as Electrical (BSEE/BSEET), Mechanical(BSME/BSMET), Industrial (BSIE/BSIET), and so forth. You may ask again, why should youcare? To better understand the difference can be approached by looking at the ABET programcriteria (1,2) used as part of the process in accrediting university programs. It should be notedthat ABET has additional requirements for
product design, materials selection and manufacturingprocesses to reduce manufacturing’s impact on the environment. Under the previous po}Iutant-by-pollutantpolicy, industries tended to continue their previous practices and simply add controls, rather than adopt newtechnologies. Environmental engineers were called upon to find control and remediation solutions within the Page 1.199.1 #@x& F 1996 ASEE Annual Conference Proceedings ‘Q,.,cilyp,:context of the existing set of manufacturing technologies. Now, there will
engineers. Staff reporter AnneMarie Squeo writes that cutbacks in government funds to aerospace and defense firmmake jobs in those industries less secure, so younger engineers are shying away fromthem. Young engineers are instead being attracted by the Internet economy, and itscomputer and software firms” (Digest 1 May 2000).Using three years of the International Engineering Education Digest as a data source, andwith the luxury of hindsight, four major themes emerge from the world of engineeringeducation:Ø Changes forced by the fragile world economy;Ø Student and professional mobility;Ø The use of communications and instructional technology;Ø The increasingly loud voice of the social imperative.These individual themes are complex enough, but when
Learning have a game-changingcontribution to industrial and engineering-related problems. This technology will completely changethe future of many industries through a transformational increase of the efficiency and accuracy ofthe problem solving. The contributions of Artificial Intelligence and Machine Learning to manyengineering industries can be summarized in two classes:Class One: Minimization or avoidance of assumptions, interpretations, and simplifications to buildhighly realistic models of the physical phenomena.Class Two: Minimization of computational footprint of the numerical models such that they can actin a realistic and practical manner.There are major differences between modeling and solving Engineering versus Non-engineeringrelated
Interdisciplinary ProgramAn interdisciplinary field of study in environmental security is available for cadets whodesire to gain fundamental insights into the complex nature of environmental securityissues. The environmental security field of study addresses three critical areas: nationalstrategy decision making (policy); technology needs for environmentally sustainableoperations; and Army environmental stewardship. The Department of Geographyand Environmental Engineering is the proponent for the environmental security field ofstudy. Page 4.244.6 6FIELD TABLES: Environmental
grapple with electrochemical issues during theircareers. The ways in which engineers and scientists interact with electrochemical processes issometimes obvious. For example, electrodeposition may be used for coating a substrate,corrosion may be a process design constraint, or electroanalytical chemistry may be used todetect a contaminant. On the other hand, the role of electrochemistry is often subtle, yetimportant. For example, cell membrane potentials are dictated by electrolytic processes,electrochromic smart window technology depends on ion conducting materials, charge transferreactions impact the efficacy of soil dewatering with electroosmosis, and more. Despite theubiquitous nature of electrochemical phenomena, few students in the U.S. have
2006-1857: ENGINEERING STUDENTS AND LAW CONFERENCESDouglas Sicker, University of Colorado-Boulder Dr. Douglas C. Sicker has held various positions in academia, industry and government. Presently, Doug is an assistant professor in the Department of Computer Science at the University of Colorado at Boulder with a joint appointment in the Interdisciplinary Telecommunications Program. Prior to this he was Director of Global Architecture at Level 3 Communications, Inc. Prior to this, Doug was Chief of the Network Technology Division at the Federal Communications Commission (FCC). Doug has also held faculty and industry positions in the field of medical sciences. Doug is a senior member of
Distributed Development of Software Engineering Professionals Kenneth L. Modesitt, Ph.D. Professor, Department of Computer Science Associate Dean for External Partnerships and Research School of Engineering, Technology and Computer Science Indiana University- Purdue University Fort Wayne 2101 E. Coliseum Blvd. Fort Wayne, IN 46805 USA modesitk@ipfw.edu http://users.ipfw.edu/modesitk/AbstractIn the November, 2001 issue of Crosstalk
Information Systems Engineerin g High School Preengineering Certificate In Students Technology WORKFORCE Internship AS Degree Community College Engineering Students (MIST) Internship Transfer University
ten years. He received his Ph.D. in Industrial Engineering with an emphasis in Management of Technology from Arizona State University. He earned his MBA from Stanford and a B.S. degree in Mechanical Engineering at the University of Illinois, Urbana. His research interests are in marketing, technology management, financial management and engineering education. He also has fourteen years of industrial experience with Digital Equipment Corp., Castle and Cooke Inc. and Westinghouse (R&D Center). Dr. Nystrom was awarded a Fulbright Scholar Grant in 2005 to teach in Oman.Donald Myers, University of Missouri Don Myers is a Professor of the Engineering Management Department at the
Teaching Engineering Ethics Across National Borders Heinz C. Luegenbiehl (Rose-Hulman Institute of Technology; Kanazawa Institute of Technology) Over the last several decades, during which courses in engineering ethics have become amore common feature of engineering curricula in the U.S., a standard model for teaching it hasemerged, primarily due to the publication of a number of textbooks with a similar focus.1 The mainfeatures of this model are an emphasis on professional autonomy, use of codes of ethics and moraltheory as the basis for decision-making, and the centrality of the case study approach. In more recent times, a focus on issues in engineering ethics
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
Paper ID #16222Increasing the Relevance of Shared Course Content through a Student andAcademic Affairs CollaborationDr. Matthew James Jensen, Florida Institute of Technology Dr. Matthew J. Jensen received his bachelor’s degree in Mechanical Engineering from Rose-Hulman Institute of Technology in 2006. Matthew received his doctorate from Clemson University in 2011 in Mechanical Engineering, focused primarily on automotive control systems and dynamics. During his graduate studies, Matthew was awarded the Department of Mechanical Engineering Endowed Teaching Fellowship. He is currently an Assistant Professor of Mechanical