classroom and laboratory curricula including online course platforms, and integrated technologies. She has been involved in both private and government grants as author and project director, and is currently PI of an NSF ATE grant, ”Increasing the Number of Engineering Technicians in Southeastern Pennsylvania.” A major goal of this collaborative effort with Drexel University is to connect for-credit, occupational technician education to workforce development certification programs. She was the faculty advisor to two student teams that made the final round of the NSF AACC Community College Innovation Challenge (CCIC) in 2016 and 2017. She and her students have been involved in STEM related outreach to local community
AC 2007-2603: LEARNING THROUGH WORK STUDY OPPORTUNITIES INCIVIL ENGINEERINGSubhi Bazlamit, Ohio Northern University Subhi M Bazlamit is a Professor in the Civil Engineering Department at Ohio Northern University. Dr. Bazlamit is the Director of Pavement management Center for Cities Counties and Villages (PMC-CCV)Farhad Reza, Ohio Northern University Farhad Reza is an Associate Professor in the Civil Engineering Department at Ohio Northern University. Dr. Reza's research interests include pavement management,design and maintenance. Page 12.1012.1© American Society for Engineering Education, 2007
Society for Engineering Education, 2007 Quality engineering education for the Arab states regionAbstractReform in engineering education is needed in all parts of the world, as universitiesprepare graduates to enter the profession of engineering which has been transformed bymassive technological developments and by globalization of all aspects of concern toengineers. Engineering educators in the Arab states region face particular challenges inaddition to those facing similar educators in other parts of the world: tailoring programsto fill the needs of countries that are undergoing rapid modernization, providing access totheir education programs for segments of their societies that may not have had it in thepast, offering programs
AC 2009-728: CULTURAL INTELLIGENCE: ENGINEERING SUCCESS FOR AFLAT WORLDRichard Gash, United States Military AcademyStephen Ressler, United States Military AcademyEric Crispino, United States Military Academy Page 14.390.1© American Society for Engineering Education, 2009 Cultural Intelligence: Engineering Success for a Flat WorldAbstract The civil engineers we educate today will enter a truly global work force. Globalization,resultant from a proliferation of information technology, has increased the likely hood that civilengineers will find themselves working in cross-cultural situations. Success in suchenvironments will require, in addition to classical
field. Like in manyengineering courses there are laboratory experiments and design assignments. Some innovative compo-nents of this effort are the collaborative approach to teaching (engineer + architect), the use of televisedlaboratory experiments (as opposed to live demonstration labs) and the use of information technologies forfaculty-student interaction (fax, voice mail and electronic mail). The course is broadcast twice a week(three hours each time) for 12 weeks. Students in the region may watch the lectures at the broadcast time orthey may record them for future viewing. Students living outside the broadcast area subscribe to a systemthat delivers the videotapes by regular mail every week. The course has been offered for three terms and
2006-172: A WEB ENABLED STUDY OF MECHANICAL ENGINEERINGBenson Tongue, University of California-Berkeley Benson Tongue is a Professor of Mechanical Engineering at the University of California, Berkeley. He received his MS from Stanford University and his BSE, MA, and PhD from Princeton University. He taught from 1983-1988 at the Georgia Institute of Technology and has been at Berkeley since 1988.Eric Lew, University of California-Berkeley Eric Lew is an undergraduate student, majoring in Mechanical Engineering at the University of California, Berkeley. His projected graduation date is May 2007
2006-588: GROWTH OF A YOUNG ENGINEERING MANAGEMENT PROGRAMYesim Sireli, University of North Carolina-Charlotte Yesim Sireli is an Assistant Professor at the Engineering Management Program at the University of North Carolina at Charlotte. She received a Ph.D. degree in Engineering Management from Old Dominion University, and also holds MSc and BSc degrees in Electrical Engineering. Her research interests include business forecasting, decision analysis, customer-oriented product development, quality management, and technology management.S. Gary Teng, University of North Carolina-Charlotte S. Gary Teng is the Director of Engineering Management Program and Center for Lean Logistics and
design, 4) increasedinterest in pursuing an engineering career, and 5) improved technological literacy [4]. With thesegoals in mind, the objective of this study was to examine how a newly developed instructionalmodel, known as Argument Driven Engineering (ADE), is related to changes in middle schoolstudents’ attitudes toward engineering and participation in engineering careers. This study ofengineering attitudes is important both for developing effective curriculum and pedagogy forengineering in science classrooms, and also for addressing nation-wide problems with diverserepresentation and participation in engineering degree programs and occupations.In 2012 the President’s Council of Advisors on Science and Technology issued a reportprojecting
engineers!” in Undergraduate Mathematics Teaching Conference, N. GOrdon, Ed. Birmingham, AL: University of Birmingham, 2001, pp. 32–40.[14] J. A. Czocher, J. Tague, and G. Baker, “Where does the calculus go? An investigation of how calculus ideas are used later in coursework,” International Journal of Mathematical Education in Science and Technology, vol. 44, no. 5, pp. 673–684, 2013.[15] J. Flegg, D. Mallet, and M. Lupton, “Students’ perceptions of the relevance of mathematics in engineering,” International Journal of Mathematical Education in Science and Technology, vol. 43, no. 6, pp. 717–732, 2012.
and its implications for minority students. Journal of Research in Science Teaching, 41(8):810–834, October 2004.[22] Carol J. Burger, Joseph A. Raelin, Rachelle M. Reisberg, Margaret B. Bailey, and David Whitman. Self- efficacy in female and male undergraduate engineering students: Comparision among four institutions. In ASEE Southest Section Conference, 2010.[23] Ronald J. Burke. Women and minorities in stem: a primer. In Ronald J. Burke and Mary C. Mattis, editors, Women and Minorities in Science, Technology, Engineering, and Mathematics, chapter 1, pages 3–26. Edward Elgar Publishing Limited, 2007.[24] Kelly Cannon, Monica Anderson LaPoint, Nate Bird, Katie Panciera, Harini Veeraraghavan, Nikolaos Papanikolopoulos
technological determinism [e.g., 28] and perceptions of engineering expertise [e.g., 29], andexplore the relationship between engineering work and a broader service to society [e.g., 30].In fall 2015, semester-long, group based design challenges around food and sustainability weredesigned to offer students opportunities to experientially ground their developing conceptualunderstandings. More specifically, student teams investigated the broad challenge in specificlocal contexts with a focus on technical, social, cultural and economic factors. Workshopelements over the semester prepared students to engage in observations of the local context andengage with stakeholders to develop and represent a coherent understanding of the chosencontext and system
offered in a typicalcurriculum, with benefit both to students and faculty. Additionally, a university can serve as arepository of knowledge, which extends beyond the life of an industrial contractual relationship.This paper presents methods on how to implement into an aerospace engineering or spacephysics curriculum the knowledge and foundation needed to understand space debris problems,and by extension many interdisciplinary problems and other areas of science and technology.1. Astronautics Courses & Space Debris EducationThe topic of space debris affects three of ERAU’s major programs in Prescott, AZ. Theseprograms are Aerospace Engineering, Space Physics, and Global Security & Intelligence Studies.The interdisciplinary nature
Achievement Award, Distinguished Lecturer for IEEE Electron Device Society, the 2002 ECE Distinguished Educator Award from ASEE, The Colorado Institute of Technology Catalyst Award 2004, and the Bernard M. Gordon Prize from National Academy of Engineering for Innovations in Engineering Education 2004 He was born in Pasadena, California in 1932 and attended numerous elementary schools throughout the country. He and his wife, Gay, have two children and two grandchildren. Page 11.197.1© American Society for Engineering Education, 2006 AN INTEGRATED UTILITIES MASTERS OF ENGINEERING
University Board of Trustees, and the Page 8.80.4Alabama Commission on Higher Education. The program began admitting freshmen andtransfer students in Fall Semester of 2002, with the first graduates expected in 2004.The BWE curriculum has been designed to satisfy the general criteria of theAccreditation Board for Engineering and Technology (ABET) “Engineering Criteria2000” (EC2000), and initial accreditation will be sought as a “unique program”. As moreuniversities develop similar programs, Auburn University intends to take a lead role inthe development of accreditation criteria specific to wireless engineering.Auburn University is also active in the Global
AC 2012-4127: LEARNER CENTERED INSTRUCTION IN MECHANI-CAL ENGINEERING PROGRAMMr. Tom Spendlove, Baker College, Flint Tom Spendlove teaches engineering and CAD courses at Baker College in Flint, Mich.Dr. Anca L. Sala, Baker College, Flint Anca L. Sala is professor and Dean of engineering and computer technology at Baker College of Flint. In addition to her administrative role, she continues to be involved with development of new engineering curriculum, improving teaching and assessment of student learning, assessment of program outcomes and objectives, and ABET accreditation. She is an active member of ASEE, ASME, and OSA, serving in various capacities.Mr. James Riddell, Baker College, Flint James A. Riddell is
Session # 3432 A Laboratory Course for Telecommunications Systems Engineering Hazem H. Refai and James J. Sluss, Jr. School of Electrical & Computer Engineering Telecommunications Systems Program University of Oklahoma – Tulsa Abstract An integral part of the curriculum in the recently developed Master of Science in Telecommunications Systems program at the University of Oklahoma - Tulsa is a laboratory course. The course is designed to enhance student understanding of fundamental computer networking
. He is currently an Assistant Professor in the Fire SafetyEngineering Technology program at the University of North Carolina at Charlotte where he develops and teachesfire safety classes. Page 9.277.5 “Proceedings of the 2004 American Society for Engineering Education Annual Conference & Exposition Copyright © 2004, American Society for Engineering”
exhibits and short summer introduction to engineering courses or camps.In developing the curriculum, the need for certain physical models and tests was brought intofocus. An existing product was modified by adding data acquisition, concrete testing, andbuilding load apparatus. The result is a compact, self-contained, tabletop unit that is flexibleenough to be used in several different courses at varying levels of engineering education. Thispaper describes how this system can be effectively used in a civil engineering curriculum.I. IntroductionThe Design of Structures system is designed for use in a number of civil engineering and civilengineering technology-related courses including statics, introduction to civil engineering,freshman engineering
-centered activity is one that activelyengages the student in the learning process, enhancing their understanding and ability to use theknowledge gained. This student-centered emphasis better prepares students to be effectiveengineers, life-long learners and leaders in new technology developments by stressing theimportance of student participation through the discovery of knowledge. Particular importance Page 6.371.1was also placed upon increasing interdisciplinary breath in all fields of study to complement the“Proceedings of the 2001 American Society for Engineering Education Annual Conference & Exposition Copyright
instructors to utilize state-of-the-art research facilities, tools and personnel to enrich the classroom learningexperience. The authors describe how their department’s undergraduatemechanical engineering curriculum is gradually being shaped to provide studentswith the necessary tools and information to understand, deploy and develop thematerials of the new millennium.Introduction“Advanced materials are the building blocks of technology”1. Engineers of the nextmillennium, need to be aware that advances in design are starting to be limited bythe performance of traditional materials. The development of advanced materialshas been the enabler of never-before imagined performance. Electronicsemiconductor-based circuits have been made much faster by
Session 1566 Addressing Manufacturing Challenges in a Mechanical Engineering Curriculum A. R. Jalloh, A. A. Mobasher, Z. T. Deng, R. Rojas-Oviedo, X. C. Qian Mechanical Engineering Department Alabama A&M University Huntsville, Al 35762 Phone: (256) 851 5891 email: ajalloh@aamu.edu; amobasher@aamu.edu; aamzxd01@aamu.edu; rojaso@aamu.edu, cian@aamu.eduAbstractEmerging technologies in engineering challenge the new generation of engineers to workin more specialized environments
increasingmetallurgical/materials design complexity of everyday material systems as a function oftime. Fracture mechanics infers that a structural component is only as strong as its largestdefect. However, with the advancements of materials and manufacturing technologies,achievable mechanical strengths are higher and defect conditions are smaller. High-strength maraging steels that approach about 25% of the theoretical strength of acrystalline solid have critical flaw sizes under reasonable service loads of the order offour microns. Flaw sizes of this magnitude are below the detection resolution limits ofconventional NDE. This situation represents a difficult dilemma!Also, materials engineers need to prioritize fracture toughness in the design of
students in other designcourses. From the instructor’s prospective, the approaches improved the quality of laboratoryeducation because they help nurture student creativity, raise their enthusiasm in learning, and deepentheir understanding of laboratory material. At the same time, the goal of integrating design into thelab course was also achieved.REFERENCES1) Criteria for Accrediting Programs in Engineering in the United States, 1995-96 Accreditation Cycle, AccreditationBoard for Engineering and Technology, Inc., Baltimore, MD2) LabVIEW - Graphical Programming, Gary Johnson, McGraw Hill, 19943) Understanding Industrial Designed Experiments, S.R. Schmidt, and R.G. Launsby, 4th Edition, Air Academic Press,19944) DESIGN-EASE Software Manual, Stat
years, a significant number of our seniors took 515: Plastics Processing Technology and516: Plastics Product Design and Material Selection offered by another department as designelectives. All three courses require a team project where students redesign an existing productwith composite or plastic materials. Students need to specify materials and processing methods,and evaluate the feasibility and the benefits of their redesign. The success and popularity of thesecourses has led the department to consider developing another elective course on designing withplastics.Although 644 is a Mechanical Engineering technical elective, a third of the course is devoted tothe materials science aspects of composites. Because students’ knowledge of composite
AC 2011-460: USING SCREENCASTS TO ENHANCE INTRODUCTORYENVIRONMENTAL ENGINEERING EDUCATIONPhilip J. Parker, University of Wisconsin, Platteville Philip Parker is a Professor of Environmental Engineering at the University of Wisconsin-Platteville. He received his B.S., M.S., and Ph.D. from Clarkson University in Potsdam, NY. Page 22.1635.1 c American Society for Engineering Education, 2011 Using Screencasts to Enhance Introductory Environmental Engineering EducationOverviewActive learning is widely accepted as a best practice in higher education
business skills for engineers. It alsosummarizes the results of a survey given to the students after their simulation experience. Thesurvey represents the students’ perception of how much they learned about the importance ofbusiness related skills.IntroductionOne of the recruiting challenges for the undergraduate program in Engineering Management isthe lack of awareness of high school students of our discipline and the value that it provides.Many students visualize engineers working in isolation creating technologically innovativeproducts. However much of the real work of engineers is based on interactions with others,product costs, customer needs, communication, motivation of others, trade-off's in resourceallocation, and interdisciplinary teams
all levels and sizes as indicated by Table 1. One of theinstructors has used clickers in classes outside the department with similar success. Class # students Level Chemistry for Engineers 400 freshman Creative Technology 450 fresh/soph Material & Energy Balances 75 soph MechE Thermodynamics 35 soph ChE Thermodynamics 55 junior Heat Transfer 55 junior Materials 65
Chemical Technology, vol. 6, K. Othmer, Ed., 3rd ed. NY: John Wiley & Sons, 1979, pp. 177-199.Biographical InformationKATHRYN A. HOLLAR is an Assistant Professor of Chemical Engineering at Rowan University. Shereceived her B.S. in Chemical Engineering and English at North Carolina State University in 1993, and herPh.D. in 2001 from Cornell University. Page 7.599.5MARIANO J. SAVELSKI is an Assistant Professor of Chemical Engineering at Rowan University. Hereceived his B.S. in 1991 from the University of Buenos Aires, his ME in 1994 from the University ofProceedings of the 2002 American Society for Engineering Education Annual
eTutor – An Interactive Module for Electrical Engineering Curriculum RUBA A. AMARIN University of Central Florida: Dept. of Electrical Engineering and Computer Science Orlando, United States ramarin@knights.ucf.edu ISSA BATARSEH* Princess Sumaya University for Technology Amman, JordanRUBA A. AMARINRuba A. Amarin is with the University of Central Florida, Orlando, FL 32816 USA. Rubareceived the B.S. degree in Electronic Engineering from the Princess Sumaya University forTechnology, Amman
PREPARING ENGINEERING CONTENT FOR A KINDLE E-READER Faculty PaperInnovations In Engineering & Engineering Technology Education and Curriculum Development or Web-based Learning Ladimer S. Nagurney Department of Electrical and Computer Engineering College of Engineering, Technology, and Architecture University of Hartford West Hartford, CT 06117 nagurney@hartford.edu AbstractE-book readers, such as the Kindle, are becoming more popular due