of the course and remedial actions will be devised toaddress any shortcomings.IntroductionIn an era of changing market forces and increasingly complex projects/designs/systems,engineering students are expected to be introduced to real world problems as part of theirtraining. Engineering students must be exposed to the complex interactions, across manydisciplines, of real-world engineered systems. Teaching engineering and engineering-relatedcourses to undergraduates is an interesting and rewarding task. Graduates from engineeringprograms must not only be technologically capable, but they are also expected to exhibit real-world problem solving skills, be team oriented, be able to function in a multi-disciplinary
AC 2007-244: A MANUFACTURING PROCESSES COURSE FOR MECHANICALENGINEERSRod Hoadley, California Polytechnic State University Rod Hoadley has been teaching as a part time lecturer in the Manufacturing Engineering Department and the Industrial Technology Department at California Polytechnic State University, San Luis Obispo since 1996. He has a BS in Engineering Technology and an MA in Industrial Technology from California Polytechnic State University, San Luis Obispo. Rod has designed, developed, manufactured, and marketed numerous bicycle related products including a dial gauge wheel centering tool for building and maintaining spoked bicycle wheels; and a patent pending bicycle parking rack
AC 2010-1323: MAKING SERVICE COUNT: ADVICE FOR NEW ENGINEERINGEDUCATORSAndrew Rose, University of Pittsburgh, Johnstown Andrew T. Rose, Ph.D., P.E. is Associate Professor and Department Head of Civil Engineering Technology at the University of Pittsburgh at Johnstown. His teaching interests are in the areas of geotechnical and structural engineering. His research interests are in curriculum development and inovation, engineering education, engineering history, historic structures, and incorporating practical design experience and professional practice issues into the undergraduate civil engineering curriculum. Dr. Rose received B.S. and M.S. degrees in Civil Engineering from the University
Session 3170 GUIDE: Helping Underrepresented Students Succeed in Engineering Amy E. Monte, Gretchen L. Hein Department of Engineering Fundamentals Michigan Technological University Houghton, MIAbstractThe Graduate, Undergraduate Initiative for Development and Enhancement (GUIDE) programcreates a supportive environment for first year engineering students from underrepresentedgroups. GUIDE provides first year students with undergraduate and graduate student mentors,financial
. Huseyin Sarper, Colorado State University-Pueblo H¨useyin Sarper, Ph.D., P.E. is a professor of engineering and former associate director of Colorado NASA Space Grant Consortium. His degrees, all in industrial engineering, are from the Pennsylvania State Uni- versity (BS) and Virginia Polytechnic Institute and State University (MS and Ph.D.). He is a registered professional engineer in Colorado. His interests include Space, reliability, economic analysis, and renew- able energy. He is a member of the Alpha Phi Mu, ASEE, IIE and the MARS Society.Dr. Ding Yuan, Colorado State University, Pueblo Ding Yuan received the Bachelor of Engineering degree in industrial automation from Dalian University of Technology, Dalian
knowledge management systems, suchas, Blackboard [1], and WebCT [2], as well as the distance education systems developed atvarious academic institutions [3-14]. A majority of e-Learning systems concentrate mainly ondelivery of course contents over the Internet with little or no room for interactivity. Interactivity Page 9.192.11 This research is supported by National Science Foundation s Science, Technology, Engineering, and MathematicsTalent Expansion Program under grant #0230425. “Proceedings of the 2004 American Society for Engineering Education Annual Conference & Exposition Copyright © 2004, American
technically-prepared graduates also be prepared for the communication needs of various jobs, enabling themto get good jobs and move up the career ladder. Examples of workplace materials and curriculabased on the Criteria of Communication Excellence will be provided in the presentation alongwith specific steps for replication. Results will be provided for use by other undergraduateprograms teaching Technical Communication courses.I. IntroductionRecent research has demonstrated that engineers entering the workplace need to acquire moreproficient communication skills in order to excel in their jobs.1 Although the Accreditation Boardfor Engineering and Technology (ABET) has recently passed criteria that include written and* This work was supported by
othereducators.IntroductionThe adoption of Engineering Criteria 2000 for use in accreditation decisions by the AccreditationBoard for Engineering and Technology (ABET) has heightened engineering educators’ interestin assessment of student learning outcomes. A cursory review of the eleven required capabilitiesof graduates listed in Criterion 3 of these criteria1 reveals that design is an important componentof engineering degree programs. Students must be able to perform design and many relatedaspects of open-ended team-based problem solving, and educators must assess and documentstudents’ achievement2. Once student achievement of design has been assessed, this informationis useful for feedback to both students and faculty to improve student learning of design. Overtime
Alabama Supercomputer Authority Huntsville, Alabama E-Mail: scott@asc.eduAbstractThe power and utility of personal computers continues to grow exponentially through (1)advances in computing capabilities through newer microprocessors, (2) advances in microchiptechnologies, (3) electronic packaging, and (4) cost effective gigabyte-size hard-drive capacity.The engineering curriculum must not only incorporate aspects of these advances as subjectmatter, but must also leverage technological breakthroughs to keep programs competitive interms of their infrastructure (i.e., delivery mechanisms, teaching tools, etc.).An aspect of these computing advances is computer modeling and
of technology experienced over recent decades makes it difficult forengineers to keep themselves abreast of the current technology. This is especially true with digitalsignal processing (DSP). DSP is now pervasive as it is used in everything from disk drives andcell phones to automobiles and stereo equipment. The sale of special DSP microprocessorsexceeds the sale of general-purpose microprocessors by almost 10:1. However, until recently DSPwas only taught in the graduate curricula of most universities and many practicing engineers havenever been exposed to DSP. Many of these engineers now find themselves working on productsthat use DSP microprocessors. Outside of the campus environment, the DSP semiconductor
today’s globalmarketplace, manufacturers wishing to remain competitive must employ pragmatic engineerswith a solid foundation in the engineering sciences, engineering practice, and industrialapplications. Stout’s newly accredited undergraduate manufacturing engineering programdevelops these pragmatic engineers in an environment rich in applications and engineeringscience. In addition to the extensive lab-based methods, real undergraduate industrial projectsare funneled to the program through an outstanding technology transfer outreach program. Thispaper presents the past and present environment that has created this back to the futuremanufacturing engineering program. Both the methods in which the laboratory based learningenvironment is utilized
topic.4. Ethics related assignments must be integrated with the course material so that students will learn to associate ethical issues as part of engineering concepts covered in the course and not treat ethical problems separate from the concepts covered in the course.5. Real-life problems are not clear-cut, multiple choice problems and engineers have to deal with ambiguity, uncertainty, and face the consequences after pursuing a course of action. Therefore, as Whitbeck [17] suggests open-ended ethical problems must be assigned for students to analyze and recommend solutions that are both ethical and pragmatic.5. References1. Accreditation Board of Engineering and Technology. “Code of Ethics for Engineers,” 345 East 47th
topic.4. Ethics related assignments must be integrated with the course material so that students will learn to associate ethical issues as part of engineering concepts covered in the course and not treat ethical problems separate from the concepts covered in the course.5. Real-life problems are not clear-cut, multiple choice problems and engineers have to deal with ambiguity, uncertainty, and face the consequences after pursuing a course of action. Therefore, as Whitbeck [17] suggests open-ended ethical problems must be assigned for students to analyze and recommend solutions that are both ethical and pragmatic.5. References1. Accreditation Board of Engineering and Technology. “Code of Ethics for Engineers,” 345 East 47th
. 27 - 29.[6] Kocaoglu, D. F., “Technology Management: Educational Trends,” IEEE Transactions on Engineering Management, 1994, vol. 41, no. 4, pp. 347-349.[7] Levinson-Rose, J. and R. J. Menges, "Improving college teaching: A critical review of research," Review of Educational Research, vol. 51, no. 3, 1981, pp. 403 - 434.[8] Mendelson, M. I., "Engineering and production management (EAPM) graduate program," ASEE Annual Conference Proceedings, 1995, pp. 2062-2065.[9] McKeachie, W. J., "Research on college teaching: The historical background," Journal of Educational Psychology, vol. 82, no. 2, 1990, pp. 189 - 200.[10] Richards, L. D., H. P. Bao, R. Unal, F. Steier, D. A. Jacobs, B.M. Reed, and M. A
Session: Mobile Robots and Interdisciplinary Design 2220 Robot Soccer: A Platform for Systems Engineering Raffaello D’Andrea Cornell UniversityAbstractThis paper describes a project course at Cornell University aimed at educating students inSystems Engineering. The multidisciplinary nature of the course is a great vehicle forhighlighting some of the key components of Systems Engineering, including System Design,Systems and Technology Integration, Systems Analysis, and System Engineering Management.The class is comprised of twenty-four students from Mechanical Engineering, ElectricalEngineering, Operations Research
Industrial Electronics and Control Engineering National 1 2 Refrigeration & Air-conditioning Engineering National 2 2 Renewable Energy Engineering National 1 1 Electrotechnology (Industrial Electronics & Control Eng) State 1 1Mechanical and Mechatronic Engineering Engineering National 5 12* Engineering Technology State 2 10 Engineering (Aerospace) State 1 1Mining Engineering Engineering (Oil & Gas
writings of E.F. Schumacher. Cases includedin the course focus on hydraulic fracturing and its possible use in Upstate New York and the oilspill associated with the Exxon Valdez.IntroductionA new course has been introduced into the undergraduate engineering program which focuses onsustainable engineering from a complex systems perspective. Sustainable engineering, one facetin the broader discussion of sustainability, can be defined as environmentally conscious attitudes,values, and principles, combined with science, technology, and engineering practice, to developproducts and processes directed toward enhancing the human experience while improving localand global environmental quality. It begins with our ability to model nature
(electricalengineering) and Car Design (mechanical engineering).Although the chief goal of this project is to produce scientists, engineers, and secondarymathematics and science educators who are experienced in developing and implementingauthentic educational practices, the secondary goal is to impact student learning by relatingSTEM content to urban city issues through the use of hands-on, technology-driven, inquiry-based projects that relate to the desired curriculum. Students need an understanding of STEMand the reasons to pursue STEM careers; over 3,000 students have been exposed to STEMlessons in the past three years with Project STEP. Teachers of these students are involved in thisprocess as well, and 36 different teachers have participated in the STEP
the global economy and to pursue successful careers.Mathematics education in engineering curricula has undergone very little progress within thepast century, while the field of engineering and the educational demands of the engineeringworkforce have changed quite significantly. Much effort is needed in improving themathematics content to provide closer correspondence with and support of engineeringeducation. One particular aspect of modernization is increased integration of powerful andwidely available computing tools in education. New technologies have rendered many topicsstill taught in mathematics somewhat obsolete while bringing to the forefront the need and abilityto teach different areas of mathematics in increased depth. This article
, rotation, and stratification, bio-fluid mechanical problems at the microscale, and engineering education topics. He currently serves as the faculty advisor to the student section of the American Society of Mechanical Engineers at the University of San Diego. He is the vice chair of the Education and Career Outreach Committee of the Division of Fluid Dynamics of the American Physical Society. He serves at the chair of the Engineering, Technology and Applied Sciences Section as well as on the Council and Executive Committee of the Pacific Division of the American Association for the Advancement of Science
experience.Reflective judgment (i.e., critical thinking) and associated skills are an important educationaloutcome for engineering students (Tsang, 2002). The development of these critical thinkingskills enables the engineering undergraduate to develop a broader appreciation of concernsfacing the engineering profession and the world. Global issues have been proposed as a means toprecipitate change in engineering curricula (Vanasupa et al., 2006). Traditionally, reflectivejudgment within engineering service learning has focused primarily on the social, political, andcultural impact of engineering and technology on society. Engineering Projects In CommunityService (EPICS), a vertically-integrated, multidisciplinary service-learning program (Coyle etal., 1997
everyday life and career choices of engineers. Key words: Engineering ethics, ethics and technology, first year students.IntroductionEthics, often viewed as a boring and fusty topic abounding with arcane phrases and eye-rollingphilosophy, has become a matter of almost daily concern and public interest. From Enron toVioxx with skewed or mis-reported data, to insulation breakdowns in defibrillators [1], NewOrleans levee failures, and with microelectronics manufacturers and plastics processesexperiencing difficult solvent choices [2][3], there are many issues for engineering decisionmakers. Ethics are also closely associated with the “rules and standards governing the conductof members of a profession.” [4]Ethics embraces more than the “Golden Rule
THE MAKING OF ENGINEERS: THE ROBOT CHALLENGEBy Neville JacobsINTRODUCTION The purpose of this presentation is to describe two IEEE initiatives that we believe can raise theinterest of students in technology and engineering, counter the influence that television has exerted inglamorizing careers in other fields, such as medicine, law and high finance; and introduce students to thefun of getting involved with engineering challenges . We all know that engineering can be very excitingand rewarding, but we need to bring this to the attention of our pre-college students, so as to obtain alarger proportion of them going on to Engineering schools.TWO SYMBIOTIC PROJECTS:TISP - TEACHER IN-SERVICE PROGRAM This is an enrichment program
THE MAKING OF ENGINEERS: THE ROBOT CHALLENGEBy Neville JacobsINTRODUCTION The purpose of this presentation is to describe two IEEE initiatives that we believe can raise theinterest of students in technology and engineering, counter the influence that television has exerted inglamorizing careers in other fields, such as medicine, law and high finance; and introduce students to thefun of getting involved with engineering challenges . We all know that engineering can be very excitingand rewarding, but we need to bring this to the attention of our pre-college students, so as to obtain alarger proportion of them going on to Engineering schools.TWO SYMBIOTIC PROJECTS:TISP - TEACHER IN-SERVICE PROGRAM This is an enrichment program
Paper ID #39721A descriptive study of an innovative and sustainable model ofwork-integrated learning for industry professionals: An Indian caseProf. Venkataraman PB, Birla Institute of Technology and Science Pilani https://www.linkedin.com/in/venkataraman-pb-3056917G Sundar ©American Society for Engineering Education, 2023A descriptive study of an innovative and sustainable model of work integrated learningfor industry professionals – An Indian caseAbstract:Research on education models suggests work integrated learning (WIL) to be an effectiveapproach for professional studies. An exhaustive, methodological review of literature
Paper ID #21016Dynamic Balancing System with 3D-Printed ComponentsDr. James J. Scire Jr., New York Institute of Technology Dr. Scire is an Assistant Professor of Mechanical Engineering at New York Institute of Technology (NYIT). He received his bachelors degree in Mechanical Engineering from The Cooper Union for the Advancement of Science and Art, and his masters and Ph.D. degrees in Mechanical and Aerospace En- gineering from Princeton University. After completing his Ph.D., Dr. Scire worked for Advanced Fuel Research, Inc., a small business in East Hartford, CT. There he developed optical diagnostics and imaging
electro- chemical energy storage systems.Dr. Corin L. Bowen, California State University, Los Angeles Corin (Corey) Bowen is a postdoctoral researcher in the College of Engineering, Computer Science and Technology at California State University - Los Angeles, where she is working on the NSF-funded Eco- STEM project. Her engineering education research focuses on structural oppression in engineering sys- tems, organizing for equitable change, and developing an agenda of Engineering for the Common Good. She conferred her Ph.D. in aerospace engineering from the University of Michigan - Ann Arbor in April 2021. Her doctoral research included both technical and educational research. She also holds an M.S.E. in aerospace
Paper ID #36420Weaving Students into Engineering, not Weeding Them OutDr. Jenna P. Carpenter, Campbell University Dr. Carpenter is Founding Dean of Engineering at Campbell University. She is 2022-2023 President of ASEE and past President of WEPAN. She is a former NSF ADVANCE PI and was a co-recipient of the 2022 National Academy of Engineering’s Bernard M. Gordon Award for Innovation in Engineering and Technology Education for her role in launching the Grand Challenges Scholars Program. She is an ASEE PEV for General Engineering, Dr. Carpenter regularly speaks at the national level on issues related to the success of
their designs on the world around them. This is so important that theAccreditation Board of Engineering and Technology (ABET) requires that engineering studentshave “an ability to apply engineering design to produce solutions that meet specified needs withconsideration of public health, safety, and welfare, as well as global, cultural, social,environmental, and economic factors” as well as “an ability to recognize ethical and professionalresponsibilities in engineering situations and make informed judgments, which must consider theimpact of engineering solutions in global, economic, environmental, and societal contexts.” [2]These requirements necessitate an understanding of engineering design as well as ethicalreasoning to make the appropriate
of enhancing learningthrough service learning activities. The initial motivation for increasing student engagement inthe industrial engineering program was to satisfy the criteria for accrediting engineeringprograms by the Accreditation Board for Engineering and Technology. The more recentdevelopment is the establishment of PACCE at UW-Platteville. The paper presents a summary ofPACCE service learning projects and student reflections. INTRODUCTION TO IE PROGRAM AT UW-PLATTEVILLE The College of Engineering, Mathematics, and Science consists of seven departments:Chemistry and Engineering Physics, Mathematics, Civil and Environmental Engineering,Electrical Engineering, Computer Science and Software Engineering, General