efforts have an impact on the engineering curriculumand deserve the attention of engineering educators. Even while working for internationalstandards, teaching with English texts and collaborating with western engineeringcolleges, engineering educators in the Arab world should keep in mind that the majorityof their students will practice at home, in the region, in Amman, in Muscat, in Liwa, andnot in Toronto, Los Angeles, or Bonn. The admonition to think globally and act locallyhas never been more appropriate. For an Arab engineering educator acting locally mightinclude the integration of entrepreneurship skills into the engineering curriculum,collaboration with local agencies and private businesses for practical experience,requiring students to
prepares the student for the fluid and global market of today. Students are alsoprepared for multidisciplinary communication. The EC2000 mandate that students be able towork effectively on multidisciplinary teams has generated active curricular research, and ledpreeminent universities such as Purdue University to create courses to build interdisciplinaryconnections in the students’ minds.2By nature, graphics is a pictorial language that should be universally understood, transcendingwritten language and the engineering disciplines. The introductory design graphics course is theideal course to introduce the multidisciplinary concept of engineering. As evidenced in thispaper, there is a significant trend in graphics courses to teach only a portion of
systems design and in themanufacturing of computing equipment, telecommunications, space vehicles and rocketpropulsion, and attracts some of the greatest minds in the world. It is the home of more than 50Fortune 500 companies. These industries and government agencies require a large number ofqualified engineers.Alabama A&M University’s School of Engineering and Technology offers three engineeringprograms, Civil Engineering, Electrical Engineering and Mechanical Engineering. The threeengineering programs presently enroll over 500 undergraduate engineering students.Civil Engineering (CE) includes the broad categories of construction, structural engineering,soil mechanics and foundations, transportation systems, water resources, hydraulic
firmlyanchored in the public mind and has weathered recommendations for transformation towardsmarket and societal-oriented knowledge. This is understandable since engineering grew out ofthe enlightement notions of scientific practices which were linear and underpinned by a set ofmethods with the belief that each problem solved ameliorates the human condition becausethere is one less problem to solve.Yet changes in engineering are necessary since engineering is not a scientific discipline. It isdifferent from science because of it is multi-disciplinary and like artit explains rather thanstates meanings. It owes as much to a critical theory which takes place at hidden coercions ofconcrete contradictions in the established worldview16. Green17 observes
AC 2007-761: ASSESSING THE IMPACT OF CASE STUDIES ON THE CIVILENGINEERING AND ENGINEERING MECHANICS CURRICULUMNorb Delatte, Cleveland State UniversityRosemary Sutton, Cleveland State UniversityWilliam Beasley, Cleveland State UniversityJoshua Bagaka's, Cleveland State University Page 12.276.1© American Society for Engineering Education, 2007 Assessing the Impact of Case Studies on the Civil Engineering and Engineering Mechanics CurriculumAbstract Engineers design. Engineering design uses mathematics and other principles, combinedwith judgment, to prevent failures. The lessons learned from failures have often led directly tochanges to
AC 2007-2568: INTRODUCING RENEWABLE ENERGY EDUCATION INTOENGINEERING TECHNOLOGY PROGRAMYouakim Al Kalaani, Georgia Southern University Youakim Al Kalaani graduated from Cleveland State University with MS and Doctoral degrees in electrical engineering with a concentration in power systems. He is a member of IEEE and ASEE professional organizations and has research interest in electric power generation, renewable energy, unit scheduling, and optimization. He is currently an Assistant Professor in the Mechanical and Electrical Engineering Technology Department at Georgia Southern University.Kurt Rosentrator, USDA
AC 2007-1510: WHAT MOTIVATES ENGINEERING STUDENTS TO WORK INTEAMS?Bianey Ruiz Ulloa, Universidad Nacional Experimental del Tachira She is currently a Full Professor of Industrial Engineering at the University of Tachira – Venezuela. She received her Ph.D. from the University of Nebraska –Lincoln in Industrial and Management Systems Engineering. She holds a M.S. degree in Industrial and Management Systems Engineering from the University of Nebraska-Lincoln and a M.B.A. and B.S. in Industrial Engineering from the National University of Tachira – Venezuela. Her research interests are teamwork, and organizational change. She worked for nine years for manufacturing and service industry as an
-competition in which teams of participants built a robot and competed in head-to-headcompetitions to achieve a given goal. Figure 1: Teachers building bridges using Jenga™ Blocks Figure 2: Teachers building Lego™ RobotsThe “Hands on the Human Body” clinic module focused on comparison of the human body withengineered systems. When most people think of engineering, the human body usually is not thefirst thing that comes to mind, but the systems of the body can be used to demonstrateengineering principles from all of the major disciplines. Simple experiments using the humanmuscles were used to demonstrate the concepts of levers and force balances which are verycommon in Physics. Blood pressure monitors and the
Economic Papers, New Series, Vol. 35, No. 3. (Nov.,1983), pp. 331-350; Donald C. Emmons, “Act-vs.Rule-Utilitarianism.” Mind, New Series, Vol. 82, No. 326. (Apr.,1973), pp. 226-233;5 Crisp, Roger. “Utilitarianism and the Life of Virtue.” The Philosophical Quarterly, Vol. 42, No. 167. (Apr., 1992),pp. 139-160.6 Lynch, William T. and Ronald Kline. “Engineering Practice and Engineering Ethics.” Science, Technology, andHuman Value, 25(2) Spring 2000.7 Vaughan, Diane. The Challenger Launch Decision: Risky Technology, Culture, and Deviance at NASA. Chicago:University of Chicago Press. 1995.8 Unger, Stephen H. “Bhopal—A Multinational Disaster,” Controlling Technology: Ethics and the ResponsibleEngineer, 2nd ed. New York: John Wiley & Sons. 1994
A you gave the offer a lot of thought.You knew the company was a leader in its field, had a good employee relations reputation, thesalary offer was acceptable, and the geographic area for employment, all fit your needs. Youwere somewhat concerned about delaying your acceptance and losing this position while waitingfor other offers that you were unsure might materialize. With the positives of this job in mind,you had already sent Company A letter of acceptance. What would you do now?Ethics Scenario # 4You are a design engineer for an automotive company. Three years ago you were the seniordesign engineer on a door latch system. You were praised for your design by upper managementand given a considerable salary increase for your contribution
AC 2007-482: SENIOR DESIGN PROJECT IN BIOMEDICAL ENGINEERINGEDUCATIONVladimir Genis, Drexel University Dr. Vladimir Genis, Associate Professor and Program Director of Applied Engineering Technology in the Goodwin College, Drexel University, taught and developed graduate and undergraduate courses in physics, electronics, biomedical engineering, and acoustics. His research interests include ultrasound wave propagation and scattering, ultrasound imaging, electronic instrumentation, piezoelectric transducers, and engineering education. He serves as a member of the Drexel’s Faculty Senate
. If we can tional curricula in teaching conceptual design. Whole courses dedicated to creating and justifyingaccept this similitude, then educators in engineering should benefit from learning about the way design concepts have been developed by Paul Gauvreau, a professor in the Department of Civildesign is taught in the visual arts. With this in mind, this paper reflects on the delivery of art stu- Engineering and NSERC (Natural Sciences and Engineering Research Council of Canada) De-dio courses and reflects upon its pedagogical value with respect to design in engineering. Fur- sign Chair. Gauvreau is also my academic supervisor. Similar progress has been made at thether, it gives suggestions on how elements of art
produce notable gains in these areas.3 The implementations ofHypatia and Galileo were done with these expected outcomes in mind, particularly persistence. Itis recognized that first-to-second year attrition in engineering programs is most severe, and thatintervention at the freshman level is paramount to increasing persistence to graduation inengineering degree programs.9-11 Thus, freshman living-learning communities for engineeringstudents seem to offer a very viable means to improve retention in engineering, especially atinstitutions that require, or strongly encourage, on-campus residence for freshman students. Assessment of the Hypatia and Galileo living-learning communities includes longitudinaltracking of cumulative grade point
variety of sources. This provides a means to cross-check the outcomes.The United States Military Academy uses a Course Assessment Plan to collect and analyze data.2This system relies on surveys and end of course grades to provide qualitative and quantitativeassessments. Felder3 suggests that there are many ways to assess student learning and, ultimately,program outcomes, but both qualitative and quantitative methods should be employed. With allof these recommendations in mind, the Department of Mechanical Engineering at UMBC,developed a process to assess program outcomes that reinvigorated the course delivery andassessment process.MethodologyAs the reality of ABET 2000 criteria began to set in, the department began discussions centeredaround the
AC 2007-1253: TEACHING MECHANICAL ENGINEERING TO THE HIGHLYUNINSPIREDBobby Crawford, USMA Bobby Crawford is a Lieutenant Colonel in the United States Army and the Director of the Aero-Thermo Group in the Department of Civil and Mechanical Engineering at the United States Military Academy, West Point, NY. He holds a MS and a Ph.D. in Aerospace Engineering and is a licensed Professional Engineer.Tony Jones, USMA Tony Jones is a Major in the United States Army and an Assistant Professor in the Department of Civil and Mechanical Engineering at the United States Military Academy, West Point, NY. He holds a MS in Mechanical Engineering
wanting to be engineers in the lower grades. Thisvision of the engineering faculty member persists in the minds of most business persons andmany times eliminates the thought of working with faculty members to develop more productsfor business. One note here is that the administration of some engineering universities havedeveloped a negative reputation with the business community, specifically one in which the firstquestion asked by the University is “How can what you propose harm the university?” Thisattitude discourages business people who are interested in economic advantage and companyvalue related to the ownership or control of technology in the market place. As with theengineering faculty member, the business person is focused on the
women,encouraging women to persist, and mentoring. With the many factors in mind, it is important toidentify the problem under investigations.Problem Statement Page 12.1614.3Stated simply, the problem is a lack of engineers to fill an increasing number of positions. Morespecifically, the problem is that the number of women engineers continues to fall short incomparison to the gender ratio of women to men in the population in the U.S.1 and worldwide 2.More women engineers are needed in general and in proportion to male engineers. The obvioussolution is to attract more women into engineering programs, and this task has been undertakenadmirably by
. R., and Tarule, J. M. (1997). Women's ways of knowing: Thedevelopment of self, voice and mind. Tenth anniversary edition. New York: Basic Books18. Asa, E. “Engineering Education of Minorities: an Overview” ASEE Annual Conference Proceedings 2006.19. Jeffers, A, Safferman, A, and Safferman, S, “Understanding K – 12 Engineering Outreach Programs,” Journalof Professional Issues in Engineering Education and Practice, ASCE, April 2004.20. Manning, A., Cox, M., Booth-Gleghorn, V. “Development of an Academic Program that Increases Multi-EthnicStudent Retention in Engineering.” ASEE Annual Conference Proceedings 2006.21. Found at: http://www.nsbe.org/precollege/pci.asp on January 9, 2007.22. Gribble, Joanne R., Ed., “What it Takes: Pre-K – 12
AC 2007-939: ASSIGNING CIVIL ENGINEERING STUDENTS TO CAPSTONECOURSE TEAMSVincent Drnevich, Purdue University Vincent P. Drnevich, P.E. is a professor of civil engineering at Purdue University since 1991. He was Head of the School of Civil Engineering from 1991 to 2000. Prior to that, he was on the faculty at the University of Kentucky. He served as Chair of the Civil Engineering Division of ASEE. He is Fellow and Life Member in the American Society of Civil Engineers, a Fellow of ASTM International, and active in the National Society of Professional Engineers.John Norris, Purdue University John B. Norris is a Doctoral Candidate at Purdue University's Krannert Graduate School of
meaning of the results, relation back to physiological problem, conclusions, bibliography. Page 12.331.16 • A key is to try to use *as little text* as possible and use as many pictures/images/graphs as you can. All figures should have associated brief text Building Engineering Communication Skills 16 descriptions. The poster should be able to be understood on its own, but YOU will be standing next to it to explain, so keep that in mind. Feel free to look at the many posters hanging around Dana and Breakiron.Poster PrintingIn order to provide you the ability to view a draft
AC 2007-1269: PERFORMING ENGINEERING RESEARCH AT NON-PH.D.GRANTING INSTITUTIONSEric Larson, Seattle University Dr. Eric Larson is an Assistant Professor of Computer Science and Software Engineering at Seattle University. Dr. Larson received his Ph.D. and MS in Computer Science and Engineering at the University of Michigan in 2004 and 2001. He received his BS in Electrical Engineering and Computer Science from the University of Wisconsin in 1997. His research interests include software bug detection, software testing, program analysis, and software development.Agnieszka Miguel, Seattle University Dr. Agnieszka Miguel is an Assistant Professor in the Electrical and Computer Engineering
a prosperous urban area, andthere is limited or no access available to technological centers. Also, while theengineering curricula would require changes to incorporate entrepreneurshipeducation, the curricula must still meet ABET requirements. With these conditionsin mind, the following are tools and techniques which Lafayette College’sEngineering Division might be able to use in incorporating entrepreneurshipeducation which will be beneficial to Lafayette College’s engineering students. • Establishment of Entrepreneurship discipline within the Engineering Division: The establishment of an Entrepreneurship discipline within the Engineering Division would bring in faculty dedicated solely to entrepreneurial studies
developers used “carefulmaterial selection, . . . , a balance of theory and practical application, enthusiastic instruction, andcontinuous student feedback” to design and subsequently teach fundamentals of engineeringmechanics and design to non-engineering students1.After successful implementation teaching non-engineers, it became apparent that the integrationof statics and mechanics of materials into a single course could have tremendous benefits forstudents majoring in engineering disciplines. With this in mind, the traditional first-course forcivil and mechanical engineering majors, CE302 – Statics and Dynamics, was replaced withCE300 and a separate dynamics course developed, enabling students to gain a deeper and morerigorous understanding of
FreshmanYear Engineering Course, Proc. 2005 International Conference on Engineering Education, July 25-29, Gilwice,Poland.[3] Lo, J, Lohani,V.K., and Griffin, O. H., 2006, Full Implementation of a New Format for Freshmen EngineeringCourse, Proceedings of the 2006 American Society for Engineering Education Annual Conference and Exposition,Chicago, IL, June 18-21, 2006.[4] Berque, D. A., Prey, J., and Reed, R. H. (editors), 2006, The Impact of Tablet PCs and Pen-based Technology onEducation, Purdue Univ. Press, 200 pages.[5] Mullin, J., Kim, J., and Lohani, V. K., 2007, Sustainable Energy Development Project for EngineeringFreshmen, Paper Accepted for 2007 ASEE Annual Conference, June 24-27, 2007, Hawaii.[6] Weaver, B., 2006, Student Minds and Pen
Page 12.325.3design is completed.Why Multidisciplinary?The traditional IE is not equipped with all of the skills necessary to tackle such a multi-faceted topic. In fact, no single engineering discipline appears to have all of the skillsnecessary to address the topic of designing products with the environment in mind. Thus,a multi-disciplinary approach to understanding environmental concerns is a fundamentaldecision to adequately address the topic.The NAE states that “engineers have been aware that solutions to many societal problemslie at the interstices of subdisciplines” and that “there is a growing need to pursuecollaborations with multidisciplinary teams of experts across multiple fields.”In addition to the NAE citing the need for
courses in mind to show the students how these courses link with Page 12.1524.3some practical applications. It was to be a three credit hour elective so some decisions had to bemade on what can be taught and what would have to be left out of the class.There were five different fields of study considered, Mechanical Engineering Technology,Industrial Engineering Technology, Manufacturing Engineering Technology, ElectronicEngineering Technology, and Computer Engineering Technology. A class would have to bedeveloped with all these majors in mind. The basic engineering skills of statics, dynamics,economics, materials, processes, and circuits would be
engineering project for an external client. Around week 4, the teams are askedto hold a second meeting with their client to discuss design options. During this meeting, it is notuncommon to have the client change their mind about their needs, to prefer a design the studentshave not favored, or to request additional work. It is also not unusual for the students toencounter challenges with the expectations of the instructor versus the mentor versus the client.The features of the Win/Win habit are crucial to managing these kinds of conflicts. Students donot have a report assignment that exercises this habit, but the lesson is learned by most groupsthrough their interaction with their client, the instructor, and their faculty mentor.Habit 5- Seek first
AC 2007-2655: OVERCOMING THE ETHICAL DANGERS OF ACADEMIC FAIRUSE IN THE HIGH TECHNOLOGY CLASSROOMEdward Sobiesk, United States Military Academy Edward Sobiesk has a Ph.D. in Computer and Information Sciences from the University of Minnesota. He is currently an Assistant Professor and Course Director for the course IT305-Theory and Practice of Military IT Systems in the Department of Electrical Engineering and Computer Science at the United States Military Academy. He can be reached at edward.sobiesk@us.army.mil.William Suchan, United States Military Academy Will Suchan has a Ph.D. in Computer Science from Arizona State University. He is the Information Technology Core Program Director in
AC 2007-1928: CULTIVATING A SUSTAINABILITY CULTURE IN IRISHSECOND LEVEL SCHOOLSSonya Quinn, University of Limerick Sonya Quinn graduated with first class honours from the University of Limerick in 2005 in Technology Education. She is currently a researcher in environmental sustainability in the University of Limerick undertaking a Masters by research in the area of sustainability and second level schools in Ireland. Sonya is also a tutor in the Explore Engineering Summer Camp, which is run as an introduction to engineering programme in the University of Limerick and is a consultant tutor in the technology learning centre.William Gaughran, University of Limerick Dr Bill Gaughran is a Senior
program is electrical systems. This topic complements otherengineering courses focused on applied physical sciences and plays a significant role in anengineering student’s academic career.In general, circuits and electrical systems are good models for the study of energy systems andthe applied math required to analyze and design circuits and systems are invaluable to anengineer, specifically a general engineer. With the concept of “systems” in mind, this articledescribes the planning, rationale, development, and delivery an electrical engineering course inthe ECU general engineering program. It provides a brief review of peer programs and outlinesseveral observations from the first experience and presents opportunities and suggestions