study engineering. This has led to the development of problem-based freshman engineering courses2,4-9, including the EGR 190 Fundamentals of Engineeringcourse here at WSU. Such courses are typically designed to give students a broad, application-based introduction to the various engineering disciplines, so that they can begin to appreciatewhy they must endure the rigor of their subsequent engineering curricula. As might be expected,this can have a significant impact on early retention of incoming students. For example,researchers at Indiana University-Purdue University Fort Wayne have recently publishedquantitative data directly relating increased retention to enrollment in their ETCS 101Introduction to Engineering, Technology and Computer
]. “Engineering Criteria 2000,” Accreditation Board for Engineering and Technology, Inc, 1997.Biographical InformationROBERT LELAND received a S.B. in Computer Science from MIT in 1978, a M.S. in System Science from UCLAin 1982 and a Ph.D. in Electrical Engineering from UCLA in 1988. From 1989-1990 he was a visiting assistantprofessor at the University of Minnesota. Since 1990 he has served on the faculty at the University of Alabama inElectrical and Computer Engineering. His research interests include controls, MEMS, and engineering education.JAMES RICHARDSON received a B.S. in Civil Engineering from UC Davis in 1978, a M.S. in Civil Engineeringfrom University of Nevada Reno in 1982, and a Ph.D. in Civil Engineering from University of Nevada Reno in1988
Engineering and Technology (RCENT), and for com-parison purposes, the University (OU) are presentedand updated to include 2004. Page 10.673.5* For example, see the many cited in this writer’s earlier work.32, 42, 45 Proceedings of the 2005 American Society for Engineering Education Annual Conference & Exposition Copyright 2005, American Society for Engineering EducationUndergraduate grade data are shown in Table 1. This data was amassed on a per-credit basis toavoid introducing spurious bias into the course-grade descriptive statistics which would resultfrom counting courses carrying different credits
Early and Sustained Gender Equity Programs Enrich Pipeline of Female Engineers Leslie Wilkins, Isla Yap, Sheryl Hom, Christine L. Andrews Maui Economic Development Board/Women in Technology ProjectIntroductionLaunched in Fall 1999, the Women in Technology (WIT) Project encourages women and girls topursue science, technology, education and math (STEM) careers in the counties of Maui, Hawaiiand Kauai in the state of Hawaii.Among programs in the United States addressing the under representation of women in STEM,WIT is unique in several ways: While most such programs in the United States are administered by government or educational institutions, WIT is administered by
Reforming Architectural Engineering Education in Taiwan: Contexts, Opportunities, and Concerns Tsung-Juang Wang Department of Architecture National Taipei University of Technology, TaiwanIntroduction Architectural education has traditionally included interdisciplinary courses to encouragestudents to improve their competency in fields related to the discipline areas (Erman et al.,2004:51, 52; Bronet & Schumacher, 1999:97, 100) and provide the basis for a wider vision ofthe field and its role in society. Architectural education has always struggled to fit thepreparation for practice demanded by professional
, the curriculum is a logical extension of traditional scienceand engineering education in that it demonstrates the practical and economic importance ofapplying sound technical skills. More important, it provides business with technologists whorecognize the economic value of responsible design practices. Society, in turn, benefits frombetter, safer products and processes, and from legal systems and processes that better reflectthe unique challenges of technology practice.
Integrating a Renewable Energy Degree into an Existing Mechanical Engineering Program Corey Jones, Robert Rogers, John Anderson Department of Mechanical Engineering Oregon Institute of Technology Klamath Falls, OR 97601AbstractThe following paper will discuss the need to integrate renewable energy programs intotechnology-based colleges. Illustrated in this paper is the basis of a renewable energyprogram, which can be adapted to an existing mechanical engineering or mechanicalengineering technology degree. Many of the courses offered at major technological collegesin their mechanical engineering programs
, efforts underway to globalizeengineering education at Northern Kentucky University and other regional universities atMidwest region of United States are discussed.Effective Teaching Practices for Globalization of Engineering EducationThe primary issue underlying any kind of internationalized engineering education is theadoption of the correct standard teaching practices. Some fundamental issues in teachingengineering subjects include: curriculum design and evaluation, liberal education forengineers, use of new technologies in engineering education, international collaborations,education for sustainable development, exchange mechanisms in engineering education,academic/industry collaborations, international mobility, linkages between developed
product design careers and opportunities disappear. In addition, manyManufacturing Engineering and Technology programs in this country are seeing analarming decline in enrollments. In most cases (if not all), the remaining twenty fiveABET accredited manufacturing engineering programs in the U.S are shrinking as thenumbers of incoming students dwindle.If our students are indeed basing their academic choices on negative information andimages promoted by mass media, it is up to educators to appeal to students and revitalizethe image by promoting the positive future of manufacturing education and prepare forthe opportunities of outsourcing. Educators must be prepared for this phenomenon andprepare students adequately for the new world that faces them
of appropriate technologies from an engineering device dissectionlaboratory in order to enhance achievement of course and student learning objectives infour courses with substantial technical content: Spanish: Language, Technology, and Culture (CHASS) (Fall, 2004) Design Studio (Design) (Fall, 20054) Communication Technologies (Education)(Spring 2005) Computer Technologies (Education)(Spring 2005) The overarching objective of the collaboration is to demonstrate the utility of ashared, central campus engineering laboratory as an enhancing and enriching agent fornon-engineering courses with appreciable technical themes or components. The particular technologies available for our collaboration were
Developing a Multidisciplinary Engineering Program at Arizona State University’s East Campus Chell Roberts, Darryl Morrell, Robert Grondin, Chen-Yaun Kuo, Robert Hinks, Scott Danielson: College of Technology and Applied Science Mark Henderson: Ira A. Fulton School of Engineering Arizona State UniversityAbstractThe purpose of this paper is to present some key elements of the design process used to create anew multidisciplinary undergraduate engineering program and document the emerging programmodel. The program will be housed in the newly created Department of Engineering at ArizonaState University’s East Campus and will award a BSE in
Humanities and Social Sciences on the Outer in Australian Engineering Curricula Dr. Josef RojterSchool of Architectural, Civil and Mechanical Engineering,Victoria University of Technology, PO BOX 14428 MC MelbourneCity,Vic 8001, Australia. Josef.Rojter@vu.edu.au The relatively poor social standing of the engineering profession in Australia relative to other major professions, and its general inability to attract both a higher proportion of women as well as a high caliber of more intellectually able young people, has been of concern to both the profession and engineering educators. This paper argues that this is due to the unclear perceptions of the engineering profession as
Developing an Introductory Software Programming Course for Engineering Students Scott J. Schneider Department of Engineering Technology University of Dayton Dayton, OH 45469 sschneider@udayton.eduAbstractThe ability to effectively develop software programs, from complex software systems to simplemacros, is becoming increasingly important in all engineering disciplines. Educators haverealized this need, and likewise have included software programming in many engineeringcurriculums. The initial course in software programming has
Addressing the Future: Development of an Electrical Engineering Curriculum Stephen Williams, Jörg Mossbrucker, Glenn Wrate, Steven Reyer, and Owe Petersen Department of Electrical Engineering and Computer Science Milwaukee School of Engineering Milwaukee, WIAbstractThe Electrical Engineering program at the Milwaukee School of Engineering (MSOE) hasimplemented a major revision of its curriculum for the purpose of assuring course contentconsistent with both present technological changes and long-term technology trends. In addition,the curriculum places an
The Global Classmates Concept – Engineering Student Experience in a Global Team Dr. Michael Sanders and Dr. Sanju Patro Kettering University IMEB Department 1700 W. Third Ave. Flint, MI 48504 Email: sanders@kettering.edu / spatro@kettering.eduAbstractChanges in technology and tightening global linkages are creating new challenges for theengineering profession today. The environment in which the future engineer will work will beshaped by these changes. Globalization, especially in the manufacturing industry, has
Re-structuring an Instrumentation Laboratory Class for Biomedical Engineers Jennifer J. Kang Derwent Department of Biomedical Engineering, Illinois Institute of Technology Chicago, ILAbstractIn order to re-structure a traditional instrumentation laboratory to include biological-basedproblems and methodologies, the Instrumentation and Measurement Laboratory class wasdeveloped at the Illinois Institute of Technology. This laboratory class was designed as a stand-alone course to introduce students to various measurement techniques applicable to the threeconcentrations of study at Illinois Institute of Technology. The
petrochemical industries. In its industrial application,pervaporation can be used for solvent purification, reuse and recovery – thus enabling greenprocess design for the environment. At Rowan University we have successfully immersedstudent teams in learning the principles, design and applications of membrane pervaporationthrough a project-based experience in our engineering clinics. Through this experimentalproject, students have learned about the industrial uses of membrane technology. Students alsolearn about the various process aspects of pervaporation, from selecting the proper membrane forthe desired separation to examining performance parameters, membrane transport, vacuumoperation and cryogenic vapor trapping, not normally taught in
understand their role in sustainability.This paper explores one way in which engineers can to be educated in sustainability—service-oriented learning.BACKGROUNDSustainability is slowly but surely finding its way into university curricula. An overview of theprogress from 1992 to 1997 is contained in the report The Engineer’s Response to SustainableDevelopment, dated February 1997, and published by World Federation of EngineeringOrganizations (WFEO). In the US many engineering colleges have developed extensiveprograms with special courses on the environment and sustainable technologies. Internationally,other institutions have also integrated these concepts into their courses.In 1999, the American Society for Engineering Education (ASEE) approved a
in thecurriculum. Other majors give students an early “feel” for their chosen area of study. We be-lieve that this lack of “feel” in our curriculum was leading to a misunderstanding of what engi-neering is all about, resulting in attrition.We decided to look at this problem as an opportunity. We moved the one-semester-hour fresh-man Matlab course to the junior year,1 which left an opening with which to do something con-structive. We saw this as an opening to excite students with engineering, give them an early fla-vor of problem solving and design, get them involved with other students, use technology tolearn technology and prepare them to design technology. Furthermore, we saw this as an oppor-tunity to pilot a course with balanced pedagogy
Future Growth of Software Engineering Baccalaureate Programs in the United States Donald J. Bagert, Stephen V. Chenoweth Rose-Hulman Institute of Technology Abstract Despite the large current number of software engineering professionals in the United States,as well as projections that it is one of the largest-growing fields in the nation for the currentdecade, growth in the number of Bachelor’s degree programs in the United States has recentlydeclined. There are currently only about thirty schools in the United States that offer abaccalaureate degree in software engineering (including several
Session 1526 Development of a Slow-Speed Engine For Educational Purposes Tim Cooley, Terry O’Connor Purdue University, College of Technology at New AlbanyIntroductionThis paper presents accomplishments resulting from the National Science Foundation’s supportof project DUE-0231299; Educational Materials Development for Enhanced Understanding ofThermodynamics Concepts.Thermodynamics is not an easy topic for students to learn. Likewise, inexpensive and easy-to-use equipment demonstrating its principles is not readily available for classroom use. In
Move and Shake: A Hands-on Activity Connecting Engineering to the Everyday World for Secondary Students Laura A. Koehl, Suzanne W. Soled and Nicholas B. Harth, Colleges of Education and Engineering, University of CincinnatiAbstract One of the main goals of Project STEP (Science and Technology EnhancementProgram) is to design, develop, and implement hands-on activities and technology-driveninquiry-based projects, which relate to the students’ community issues, as vehicles toauthentically teach science, mathematics, engineering and technology skills. The Moversand Shakers Lesson Plan was a three-part activity that helped students connectengineering principles to the design of buildings that
students are required to design, build and operate a submersible with providedmaterials. At the end of the semester, the finished ROVs competed in a series of underwaterevents in the Rowan swimming pool and also performed a field exploration in a local pond.In recent years, robots and various kinds of ROVs are becoming increasingly popular inscientific research, education and public entertainment. To many people, they have becomealmost the hallmark of modern engineering and technology, especially the “real” tangiblepart of the field. Among the various ROVs, we chose the underwater ROV to be the subjectof our new hands-on project based course since its skill level is proper for undergraduateeducation and its operation is manageable within the scope
is becoming more commonplace;high technology is altering the role of the instructor in the classroom; active learning in team envi-ronments, which fosters communication and interpersonal skills, is replacing the traditional lec-ture mode1,3,7,9,10,12,18,23. Merging of the teaching and research fronts is also needed. Boyer4 hascalled for moving beyond the “teaching versus research” debate by focusing on scholarship,which is an outgrowth of the full range of academic endeavors. In pursuit of scholarship, the inte-gration and inter-relation of teaching, research, technology transfer, and service are all acknowl-edged and valued. Proceedings of the 2005 Midwest Section Conference of the American Society for Engineering Education
Entrepreneurs in Action!: A Problem-Based Learning Environment for Engineering Entrepreneurship R. Wilburn Clouse Vanderbilt University Joseph Aniello Francis Marion University Joseph Biernacki Tennessee Technological UniversityAbstract The objective of this paper is to describe a model called Entrepreneurs in Action! that teaches engineering students to make the connection between their education and daily life. The model further
Using Problem-Solving Videos in an Introductory Engineering Circuit Analysis Course R. M. Nelms, R. F. Halpin Auburn University/Program Evaluation and Assessment Consultants nelms@eng.auburn.eduIntroduction Even though research has been conducted in the university classroom in an effort to evaluateand improve different teaching methods in the presence of ever-changing technology 1-3, theinvestigation of how to improve students’ problem-solving skills through the use of study toolsneeds further investigation. The technology reform movement has led to changes in howinstructors of engineering material teach the content and
understanding of andappreciation for the professional obligations of engineers. The Accreditation Board forEngineering and Technology (ABET) recognizes the need for educating engineers whosecompetence includes analytical abilities, creativity, and an awareness of the social impactof engineering, as well as technical skill. Collectively, these qualifications, which shouldbe developed and sustained by professional engineers, can be grouped under the conceptof professional responsibility. ABET has expressed the need for educational programs Page 10.1317.1that address those elements of the profession. Proceedings of the 2005 American Society for Engineering
programs in the U.S., with an annual enrollment of 50,000 students. Thisfreshman/ sophomore class is an ideal place to excite students about their engineering majors andexpose them to engineering design experiences. PRIME Modules, Project Based Resources forIntroduction to Materials Engineering, are being developed that utilize modern materials scienceand engineering technologies and proven education methodologies of active learning and openended projects.The classroom component of the course will be made up of “Applied Engineering Content”(AEC) Modules. These three to four week modules will cover a set of the fundamental learningobjectives for the course within the context of a current innovation in materials engineering.AEC modules on
Developing 3-D Spatial Visualization Skills for Non-Engineering Students Sheryl A. Sorby, Thomas Drummer, Kedmon Hungwe, Paul Charlesworth Michigan Technological UniversityAbstractThe ability to visualize objects and situations in one’s mind and to manipulate thoseimages is a cognitive skill vital to many career fields, especially those requiring workwith graphical images. Unfortunately, of all cognitive processes that have beeninvestigated, spatial cognition shows some of the most robust gender differences favoringmales, especially in the ability to mentally rotate 3-dimensional objects. This has obviousimplications for our attempts to encourage gender equity in
An Alternate Paradigm for Undergraduate Engineering: The Bachelor of Arts Kimberly A. Whelan, Sharon A. Jones Lafayette College Introduction The National Academy of Engineering (NAE), and the American Society for Civil Engineers (ASCE) are on record stating the problems associated with the prevailing paradigm for undergraduate engineering education in the USA.1, 2 Several of the problems stated refer to the need for a more liberally trained engineer who has mastery of the essential engineering principles, but realizes the social impact of technology and is well equipped with communication skills. Typical