using SolidWorks, and ANSYS Fluent software was used by a third studentwho was not on the senior capstone team to simulate the Kelvin-Helmholtz instability.IntroductionThis project involved the design, building and testing of a Kelvin-Helmholtz instabilityapparatus by undergraduate engineering students. The laboratory will enable students toconduct visualizations of the waves that develop due to the instability.The Kelvin-Helmholtz instability is a classical problem originally studied by Helmholtz 1and Kelvin2. The mechanism causing the instability has been studied in detail by Lamb3,Bachelor4, Drazin and Reid5, Chandrasekahr6, Craik7, and many others. The Kelvin-Helmholtz instability can appear at the interface of two fluid layers flowing with
University Charles Pringle is a professor in the Mechanical Engineering Technology program at Central Washington University. Charles teaches upper division courses including the senior capstone course.Prof. Lad Holden, Central Washington UniversityDr. Michael L. Whelan, Department of Engineering Technologies, Safety, and Construction, Central Washing-ton University Received B.S.C.E. (1970) and M.S. (1971) degrees from the University of New Mexico followed by a Ph.D. (1981) from Iowa State University. Has held faculty and administrative positions in several universities, a visiting researcher position in a governmental laboratory, and a variety of engineering positions in industry during the period 1971 to the present
Paper ID #12084Term Project Design for Undergraduate Building Information Modeling Ed-ucationDr. Rui Liu, University of Texas at San AntonioDr. Rogelio Palomera-Arias, University of Texas, San Antonio Dr. Rogelio Palomera-Arias educational and professional background is multidisciplinary and multilin- gual in nature. He obtained his Ph. D. in architecture with a concentration in building technology, and an M.S. in electrical engineering from the Massachusetts Institute of Technology (MIT) in Cambridge MA. Dr. Palomera-Arias joined the faculty at Construction Science Department at UTSA in the Fall 2013. The main teaching
Paper ID #16118Effect of Electrical Alternative Energy Sources on Power GridDr. Masoud Fathizadeh P.E., Purdue University - Calumet Masoud Fathizadeh – PhD, PE Professor Fathizadeh has been with the Department of Electrical and Computer Engineering Technology Purdue University Calumet since 2001. He has worked over 15 years both for private industries and national research laboratories such as NASA, Argonne and Fermi National Laboratories. Dr. Fathizadeh has established his own consulting and engineering company in 1995 spe- cializing in power system, energy management and automation systems. During last twenty years
2011,27, 458-476.7. Agarwala, R.; Abdel-Salam, T. M.; Faruqi, M., Introducing thermal and fluid systems toindustrial engineering technology students with hands-on laboratory experience. In AmericanSociety for Engineering Education, Hawaii, 2007.8. Ma, J.; Nickerson, J. V., Hands-on, simulated, and remote laboratories: A comparativeliterature review. ACM Computing Surveys (CSUR) 2006, 38, 7.9. Ribando, R. J.; Richards, L. G.; O’Leary, G. W., A “Hands-On” Approach to TeachingUndergraduate Heat Transfer. In ASME 2004 International Mechanical Engineering Congressand Exposition, American Society of Mechanical Engineers: 2004; pp 413-422.10. Minerick, A., Desktop experiment module: heat transfer. In American Society
, to enter today’s workforce” (italics added).4 This is a situation that is hardly unique toengineering and concerns about gaps and mismatches between university education andprofessional practice are common in many fields including K-12 teaching, medicine, and law.Because of perspectives like this from ‘industry representatives,’ we were hopeful that we wouldfind willing research partners in industry who saw the value of this research for, if not directlyclosing the gaps between university education and professional practice, at least getting a clearer,empirically grounded understanding of these gaps. We and our research collaborators at anotheruniversity went into this study with combined decades of ethnographic fieldwork experience inother
June 27 Careers with a Science Bachelor’s Degree July 11 Do’s and Don’ts of a Scientific Talk July 18 Careers at a National Laboratory July 25 How to Make a Scientific Poster August 1 Technical Resumes 101Workshops were conducted from noon to 1pm on Tuesdays with attendance required. Note, earlyworkshops in the series were directed at educating students about graduate school with laterworkshops providing exposure to divers careers in science and tips on how to enhanceprofessionalism in conduct and presentations. The counterpart to the weekly Tuesday workshopswas weekly seminars on Thursdays. Seminars were also held from noon to 1PM with
Paper ID #23331Nanotechnology Fellows Program: Integrating Interdisciplinary Education,Professional Development, and OutreachProf. Saniya LeBlanc, George Washington University Dr. Saniya LeBlanc obtained a PhD in mechanical engineering with a minor in materials science at Stan- ford University. She earned her BS from Georgia Institute of Technology and a Master’s of Philosophy in Engineering from Cambridge University as a Churchill Scholar. With a strong commitment to educa- tional equity, she served in Teach For America as a high school math and physics teacher in Washington, D.C., and she was co-founder of the
Mechanical Engineering disciplines in the areas of engineering mechanics, structural engineering, structural design, and solid mechanics., crashworthiness, and Plates & Shells.Dr. Anca L. Sala, Baker College, Flint Dr. Anca L. Sala is Professor and Dean of the College of Engineering at Baker College. In addition to her administrative role she is involved with development of new engineering and technology programs and curriculum, improving teaching and assessment of student learning, assessment of program outcomes and objectives, and ABET accreditation. She is a founding member of Mi-Light Michigan Photonics Cluster, and is active in the ASEE, ASME, and OSA professional societies serving in various capacities
Paper ID #24724Aselsan Academy: A New Industry-Academia Partnership ModelProf. Mehmet C ¸ elik, Aselsan Inc., Council of Higher Education of Turkey Mehmet C ¸ elik graduated from Middle East Technical University (Turkey), Department of Mechanical Engineering in 1989. He obtained his M.Sc. and PhD degrees in the same department in 1991 and 1997, respectively. During that time, he had worked as a teaching assistant. In 1995-1996, he had stud- ied as a research scientist at Ohio State University. Between 1998-2010, he had worked in ASELSAN MST/REH˙IS as Mechanical Analysis Manager, Test Unit Manager and Senior Lead
Paper ID #30066Evaluating a Multi-Campus Undergraduate Research Program to ImproveRetention of 2+2 Engineering StudentsDr. Cynthia Howard-Reed, Pennsylvania State University Cynthia Howard Reed is the Assistant Director for Student Research and Graduate Equity and an Assistant Teaching Professor in the College of Engineering at Penn State. She has a MS in Environmental Health Engineering and PhD in Civil Engineering from The University of Texas at Austin and received her BS in Civil Engineering from North Carolina State University. Prior to her position at Penn State, Dr. Reed conducted research in the field of indoor air
, such as visiting the State Key Laboratory, and participating in the 30th Asianremote sensing conference.(3) Teachers’ active participation in class constructionThe head teacher and the counselor have actively participated in their class construction. Thehead teacher is responsible for lecturing professional knowledge and creating academicatmosphere, whereas the counselor for daily management and supervision. The classcommittee would also regularly collect students’ opinions and hold discussion among thehead teacher, the counselor and the students.(4) Development of colorful class activitiesFeaturing “promoting class construction through class activities”, the class committee hasheld a variety of class activities such as fun sports meetings
McGill and Concordia University, Canada. He is currently a visiting Associate Professor at Elizabeth City State University. His research interests are in the area of aviation, aerodynam- ics, control system design, modeling, simulation, aircraft, and unmanned aerial vehicles, teaching and mentoring undergraduate and graduate students. c American Society for Engineering Education, 2020 Integrating Hands-on Activities with Drones to Engage High School Students in Engineering Design Process and Applied ResearchAbstractThe overarching goal of Elizabeth City State University’s (ECSU’s) Drone ExplorationAcademy is to capitalize on the increasing popularity of unmanned aerial vehicles
Paper ID #28493Engineering Diversity at Queensborough Community CollegeProf. marvin gayle, Queensborough Community College of the City University of New York Associate Professor, Department of Engineering Technology, Queensborough Community College, City University of New York.Dr. Dugwon Seo, Queensborough Community College Dr. Dugwon Seo is an assistant professor in Engineering Technology Department at Queensborough Community College. Dr. Seo has been teaching engineering technology courses including digital circuit, computer applications, computer-aided analysis, and renewable energy. Her research interest includes
industrial management, financial management, computer technology, and environmental technology, as well as leading seminars in the university’s general education program. Prior to academia, Mr. Hilgarth was employed as as engineer in the aerospace industry in laboratory and flight test development, facilities management, and as a manager in quality assurance. He has contributed papers on management, ground-test laboratory and flight test facilities, and ethics to several technical and professional organizations. In education, he has served as a consultant and curriculum developer to the Ohio Board of Higher Education and the Ohio Department of Education. He holds an M.S. in engineering management from the Missouri
EngineeringTechnology that includes a senior level capstone course in analog integrated circuit design. Thiscourse includes a two credit hour (six contact hours per week) laboratory in which studentswould normally perform six to eight individual “canned” experiments. Recently the author hasre-structured the laboratory to become a term-long group project in the area of analog integratedcircuits. This paper describes the results of one of these team projects.IntroductionThe objective of this capstone course is to expose senior EET majors to the design process foranalog integrated circuits by working as a member of a design team. Upon completion of thiscourse, a student will have been exposed to the processes of working in a team, picking an idea,researching the
began taking a course called Introduction toEngineering Design during the sophomore or junior year. One credit of that four-credit coursewould be entitled Professional Development I and would be taught by the Archer Center. Inaddition, the Archer Center would teach a culminating course, Professional Development III,for students who were simultaneously enrolled in the Capstone Design Course. Theresponsibility for a third course, Professional Development II, was assumed by the School ofHumanities and Social Science; it was organized to be completely independent of the ArcherCenter sequence. All three of these experiences are described below in greater detail.The addition of these curricular components to the School of Engineering did not occur
theresulting PhotoModeler outcome of the section. In Figure 4 the PhotoModeler view of the entirefactory is visible. Figure 3. A portion of the sugar and rum factory ruin and the PhotoModeler modelEducational ObjectivesHorton and Holden each hold full-time teaching appointments and were interested in providingunique educational opportunities for students involved in the project as they produced results thatcould be useful to the Park in attaining its objectives. The NPS also has a mission to providetraining opportunities for future cultural preservationists. The principal investigators sought toassure that the coursework and on-site project offered opportunities for the following educationalobjectives: 1. Students will learn and apply
to sugar and 85-92% conversion of sugar to ethanol leads to anoverall process efficiency of approximately 50%.2,3,4 When looking at this kind of processefficiency, two major questions arise: is a biomass-to-ethanol process using lignocellulosicbiomass as a feedstock a sustainable solution? If not, what can be done to make this process aviable long-term alternative to fossil fuels? As part of their ENG1102 experience, MichiganTech students will answer these questions.Biomass-to-Ethanol FacilityThe basic design for the biomass-to-ethanol facility for the alternative fuel design process isbased upon an ASPEN Plus Simulation developed by National Renewable Energy Laboratory(NREL) in 1999. This process, shown in Figure 1, uses yellow poplar as a
is the experiences afforded students in the laboratory setting. Indeed, manyengineering technology students excel in coursework that fosters the tactile-kinestheticeducational domain. A host of students here at Alfred State College have alluded to thebenefits experienced in a laboratory setting where they are able to apply the theorypresented during lecture. This added dimension of application has been cited numeroustimes as the main reason for selecting an engineering technology curriculum over anengineering science curriculum. If the aforementioned can be agreed upon, thensimulating an industrial experience can also afford another opportunity to develop these
attitudes with respect to community service than did students and that only minordifferences existed based on participants’ age and gender.The current research builds from this prior effort. In Bauer et al., data were collected in theMultidisciplinary Engineering Laboratory, EGGN250, a sophomore level course in the fall of2004. This course was selected because it was required of all students and it preceded the courserequirements within the Humanitarian Engineering minor. In other words, the existence of theminor and the courses associated with that minor would not yet have impacted the students’attitudes. Using the same instrument, data was collected in the spring of 2007 in a senior levelcourse, a time period when most of the original student
2006-1745: DESIGNING AN ARTIFICIAL INTELLIGENCE COURSE FORELECTRICAL AND COMPUTER ENGINEERING TECHNOLOGY STUDENTSMichael Filsinger, University of Cincinnati MICHAEL D. FILSINGER is an Assistant Professor of Electrical and Computer Engineering Technology at the University of Cincinnati. He received a BA in Mathematics and MS degrees in Mathematics and Computer Science from the University of Cincinnati in 1990, 1992, and 1994, respectively. In addition to teaching, he has served as a computer system administrator. He is a member of IEEE, ASEE, and the Phi Beta Kappa honor society. Page 11.417.1
collectively supportfive four-year ET undergraduate programs:[1] ‚ Architectural Engineering Technology (AET) in the Architecture Department ‚ Audio (AuET), Electronic (EET) and Computer Engineering Technology (CET) in the Electrical & Computer Engineering Department ‚ Mechanical Engineering Technology (MET) in Mechanical Engineering Department Page 12.417.2The curriculum of each ET program is designed such that students must complete: ‚ One 4-credit lecture/laboratory course in a basic science elective ‚ Two 4-credit lecture/laboratory courses in algebra-based physics ‚ Four 3-credit All University Curriculum (AUC
these characteristics, a workshop wasconvened at Michigan Tech in August 2006 to define a Service Systems Engineering curriculum.Workshop participants consisted of faculty from several universities as well as industry leadersinterested in engineering for the service sector. An additional grant from NSF’s CourseCurriculum and Laboratory Improvement (CCLI) program was recently awarded for theimplementation of this curriculum.IntroductionWe are living in a service economy and our educational system has failed to keep pace toprovide employers with graduates meeting the demands of the service sector. Over 80% of theeconomic activity in the United States is within the service sector1 with similar high rates inother developed countries.2 This sector
instructors to perform the assessmentreliably is needed. This is discussed later.Capstone Experiences Capstone experiences are where students are supposed to apply what they have previouslylearned to a comprehensive, usually design-oriented, problem. Therefore, this is a very logicalplace to assess what students have learned. Furthermore, since these experiences are usually Page 12.548.4done in teams and they usually involve written reports and oral presentations, the professionalskills (teamwork, communication, global/societal context, life-long learning, contemporaryissues) can be assessed similarly. Laboratory experiences may also fall into
laboratory projects for teaching topics inprototyping, fluid mechanics, chemical kinetics, electrochemistry, separation science, heat andmass transfer, process control, biotechnology, materials science, and image processing.Microfluidicis is also an useful gateway for introducing engineering students to biotechnologyand biomedical fields, since many chemical and biotechnology processes done on the chemistrylab bench can be translated to microfluidic formats. Moreover, microfluidics is emerging as animportant commercial technology, and engineering students will be well served by gainingknowledge and experience in this field. A typical microfluidic system is centered around a credit-card sized plastic ‘lab on a chip’ thathosts a fluidic network of
, West Lafayette Nicholas is a Ph.D. student in engineering education at Purdue University. His research interests include engineering design, team learning, and instructional laboratories. He has conference publications on cooperative learning, engineering laboratories, innovation, and design. Page 23.740.1 c American Society for Engineering Education, 2013 Innovation Process Mapping Protocol: An Approach to Assessing Students’ Understanding of Innovation As a ProcessAbstractThe assessment of knowledge, skills, and behaviors related to innovation is a challenging
? Retirement In terms of loyalty on a scale of 1 to 10, how would you rate yourself? What are the strengths and weaknesses of your company? Future forecast of your company What do you see as a threat to your company? What are strengths and weaknesses of your company?The companies chosen by students were Intel Corporation as shown in Figure 2, ENMR-PlateauTelecommunications, LabCorp, Presbyterian Healthcare Services, Merck & CompanyIncorporated, Ward Natural Science, Sandia National Laboratories, Samsung Group, H. LeeMoffitt Cancer Center and Research Institution and Global Technologies, Inc.(GTI). Some teamswere able to contact the company‘s representative quickly, while other teams have to be moreaggressive by making
deflect when you push, pulland twist them in a single object. Experience suggests that students have substantialdifficulty with combined loadings, but it is unclear why this is true.Understanding how theories of conceptual change may fit student misconceptions inengineering disciplines is ultimately useful because it could inform teaching practices.For example, if what is proposed in this paper has validity then spending time withstudents on how objects move and change shape under a variety of loads may help dispelthe myth that stresses only act in the direction of applied loads.Acknowledgements This material is based upon work supported by the National Science FoundationCourse Curriculum and Laboratory Improvement Program under Grant
personal support;settings that provide early and frequent feedback on students’ performance; settings that includestudents as valued members; and settings that foster learning.One AE-AEP support program is the Interactive Learning Laboratory, which incorporates avariety of approaches to learning, including one-on-one tutoring, collaborative (peer) learningand interactive software. The laboratory consists of nine computer workstations where studentscan use interactive software to enhance classroom learning. The lab also includes resources tohelp students develop money management skills and financial literacy that are essential for Page