Session 2793 Web-based Visualization Techniques for Structural Design Education Mohammed E. Haque, Ph.D., P.E. Texas A&M UniversityAbstractWith the advances in information technology over the last decade, the traditional teaching formatof having an individual lecture to an audience has been supplemented, and in some cases,replaced by the rapid development and implementation of new distance learning methods. Astechnology rapidly changes, the importance of educating and training diverse populations ofcivil/construction engineering/science students becomes more critical
advanced technological education, 2022. 1(1).9. Brounstein, Z., et al. Microfabrication of MEMS Electro-Thermal Actuators for Problem-Based Learning. in 2020 Gulf Southwest Section Conference. 2020.NATHAN JACKSONProf. Jackson currently serves as an Associate Professor in the Mechanical Engineering Department at the University ofNew Mexico, and he is also the Director of the Nanoscience and Microsystems Engineering Graduate Program. Hisresearch interests are in MEMS, BioMEMS, Energy Harvesting, Aerosols, Functional Materials, Piezoelectrics,Magnetics, and Engineering Education. He is a Senior Member of IEEE, a member of ASME, and a member of ASEE.SUNG “PIL” KANGProf. S. Pil Kang, is an Associate Professor in the Organization
B.Tech from Indian Institute of Technology, and M.S. and PhD. degrees from Iowa State University. He was a post-doctoral research associate at University of Notre Dame and worked as an analysis engineer for Concurrent Technologies Corporation prior to joining UDM. Page 11.725.1© American Society for Engineering Education, 2006 Implementing a Multi-Media Case Study in a Traditional Laboratory ClassAbstractA paradigm shift is taking place in engineering and technology education. The shift is driven byemerging knowledge related to cognitive theory and educational pedagogy
knowledge simply by abstracting away the detail. AtEdith Cowan University (ECU), a new (1998) syllabus does just that.2. A New Computer Technology Modelling AbstractionThe ACM/IEEE Computing Curriculum 1991 defines international benchmark standards incomputer architecture education as a pre-requisite chain of seven units. However, computerdesign and manufacture has changed rapidly in the last decade. Assembly Level Manufacturing,Application Specific Integrated Circuits and Surface Mounted Technology have all led to anever-decreasing unit price and a resultant low cost PC with a standard architecture and modular Proceedings of the 2001 American Society for Engineering Education Annual Conference & Exposition
Session 2553 A FRESHMAN DESIGN EXPERIENCE: RETENTION AND MOTIVATION Geraldine B. Milano, Richard Parker, George Pincus New Jersey Institute of Technology Newark, NJ 07102-1982 INTRODUCTION New Jersey Institute of Technology has seen an improved retention rate of freshman students in thepast two years. Reasons for these positive changes include curriculum changes and incorporation of newteaching methodologies. Freshman students are more motivated to learn about engineering and to
, p. 1145-11499. Eder, W. E., “Developments in Education for Engineering Design: Some results of 15 Years of WDK +4ctivity in the Context of Design Research,” Jm! Eng. Des., Vol. 5, No. 2, 1994, p. 135-14410. Polya, G., How To Solve It, Princeton, NJ.: Princeton U. P., 194511. French, M.J., Engineering Design: The Conceptual Stage, Heinemann Educ., London, 197112. Sub, N.P. Principles of Design, Oxford: University Press, 1989W. ERNST EDER Educated in England and Austria, with ten years of industrial experience, his academic appointmentscover the University Cone e of Swansea (1961-67), The University of Calgary (1968-77), LoughboroughUniversity of Technology f1977-81) and the Royal Military College of Canada, Kingston, Ontario
engages designers with a real person. It explicitly engages engineering habits of mindand adds the complexity that real users bring and the challenge of extracting real requirementsfrom these users. This approach builds on work from Stanford’s D School, IDEO, the EPICSProgram and others practicing authentic design and can be mapped into any design process.Additionally, the Human-Centered Design approach opens opportunities to explore howengineering can make a difference in the lives of others. A “Change the Conversation” approachto engineering. Rather than focusing on technology or some abstract use of a design, the focusbecomes design that makes a difference in someone’s life. This mindset introduces authenticityand promotes diversity. The
218 Work In Progress: Model Eliciting Activity for an Undergraduate Thermal Measurements Laboratory Paul van Bloemen Waanders, Andrew Kean, Glen Thorncroft, Brian Self California Polytechnic State University San Luis ObispoAt Cal Poly, San Luis Obispo our undergraduate engineering education is designed to preparestudents for industry. The rise of technology in modern engineering demands a shift in the wayundergraduates are prepared for the modern workplace. Engineering problems should focus onthe development of analytical models that describe a system. These models, once made, can beused to
Curriculum and the University of North Dakota.” Journal of Engineering Education. 83, 161-168.9. Schulz, K.H. and D.K. Ludlow. 1996. “Incorporating Group Writing Instruction in Engineering Courses.” Journal of Engineering Education. 85, 227-232.10. Newell, J.A. 1998. “Using Peer Review in the Undergraduate Laboratory” Chemical Engineering Education. 32, 194-196.11. Miller, D.C. and J.M. Williams. 2004. “Incorporating Peer Review in the Chemical Engineering Laboratory.” Proceedings of the American Society of Engineering Education Annual Conference, Salt Lake City, Utah.Biographical informationDAVID C. MILLERDavid C. Miller is an Assistant Professor of Chemical Engineering at Rose-Hulman Institute of Technology. Dr.Miller has previously
still. Thequestion therefore arises whether we can keep developing ad hoc solutions or is there amore systematic approach that can be taken? In the latter case, there are implicationsthroughout all industry-based training and into the preparatory academic programs.Finding a solution for the shortage of chief engineers and technology executives onlyserved to demonstrate that it was a short-term fix and that we also had a long-term issueto manage. However, the outcomes from the executive training program were an idealstarting point for a top-down view that would identify the key characteristics of thesystems we seek to develop and exploit. The purpose of this paper is to present someearly outcomes of requirements for competency in creating
. Allison is a Professor of Mechanical Engineering at Grove City College. He teaches courses in system dynamics, control systems, robotics, mechanics of materials, materials science, and finite ele- ment analysis. Areas of research interest include the modeling and control of metal forming processes, manufacturing automation and control systems. He received his Ph.D. and M.S. degrees in mechanical en- gineering from the Massachusetts Institute of Technology and his B.S.M.E. degree from Carnegie Mellon University. Address: 100 Campus Drive, Grove City, PA 16127; Email: btallison@gcc.edu.Prof. Kevin Huang, Trinity College c American Society for Engineering Education, 2018
AC 2007-455: A STUDENT-CENTERED SOLAR PHOTOVOLTAICINSTALLATION PROJECTArthur Haman, University of Detroit Mercy In his fifty years at the University Arthur C. Haman has progressed through the academic ranks to his current position of Professor of Mechanical Engineering and Associate Dean for Operations. His industrial experience was acquired as a Structures and Armaments engineer at Northrup Aviation and as an engineer in the Scientific Laboratory of the Ford Motor Company. He has also held visiting professorships at what was Carnegie Institute of Technology and Dartmouth College. His current interests are in thermodynamics and internal combustion engines.Robert Ross, University of Detroit Mercy
case studies are presented fromthe student perspective, focusing on the educational and professional benefits to students whohave worked on these projects. Keywords: Industrial Projects, Undergraduate Research, Pharmaceutical Industry1. Introduction Undergraduate engineering and technology students benefit from “real-world” experienceswhich are usually obtained through internship and co-op experiences. Through these workexperiences, students have the opportunity to apply their technical skills to industrially-relevantproblems, gain exposure to company culture, and build a foundation which helps providemotivation for future learning in an academic environment. While these “real-world”experiences are highly valuable to students, they are
Accessible Technology housed by the Department of Computer Science and Engineering at the University of Washington. Her research interests are in the areas of ubiquitous computing and data science. Caspi is interested in ways by which collaborative commons and cooperation can challenge and transform computing disciplines, and in particular, translation and deployment of technology to benefit individuals with disabilities.Dr. Heather A Feldner, University of Washington Department of Rehabilitation Medicine Heather Feldner received her BS in Human Biology and Master’s degree in Physical Therapy from Mar- quette University. She has been a practicing pediatric physical therapist for 19 years, and began teaching in the
engineering ethics. Professor Smith holds a PhD in Anthropology and a certificate in Women’s Studies from the University of Michigan and bachelor’s degrees in International Studies, Anthropology and Latin American Studies from Macalester College.Dr. Juan C. Lucena, Colorado School of Mines Juan Lucena is Professor and Director of Humanitarian Engineering Undergraduate Programs and Out- reach at the Engineering, Design & Society Division of the Colorado School of Mines (CSM). Juan obtained a Ph.D. in Science and Technology Studies (STS) from Virginia Tech and a MS in STS and BS in Mechanical and Aeronautical Engineering from Rensselaer Polytechnic Institute (RPI). His books include Defending the Nation: U.S
AC 2011-1274: THE ICOLLABORATE MSE PROJECTKathleen L Kitto, Western Washington University Kathleen L. Kitto is currently the Associate Dean of the College of Sciences and Technology and Pro- fessor of Engineering Technology at Western Washington University. Professor Kitto has served WWU for more than 20 years and has played a number of roles within the university including eight years as Chair of the Engineering Technology Department. She has been actively involved in the creation of an Advanced Materials Science and Engineering Center (AMSEC) and their new minor in Materials Science at Western. She recently became the Director of AMSEC. She is also plays a role in the college’s efforts to establish a
Tech University in 2013. His thesis was titled “Anterior Cruciate Ligament Response Due to Forces Resulting from Quadriceps Muscle and Ground Reaction.” He received his M.Sc. in Mechanical Engineering from the National University of Singapore in 2005 and earned B.Sc. in Mechanical Engineering from Bangladesh University of Engineering and Technology in 2002. He has more than 10 years of industrial experience, playing different roles like lead project engineer, system engineer, principle mechanical engineer, and finite element analyst. Currently, he is conducting research on engineering education. © American Society for Engineering Education, 2022 Powered
distribution.Bibliography[1] Li, H., & Jin, K. (2021). An innovation framework to integrate engineering standards into industrial engineeringgraduate curriculum [Article]. Smart and Sustainable Manufacturing Systems, 5(2), Article 707.https://doi.org/10.1520/SSMS20200012[2] LaMack, J. A., Fennigkoh, L., & Licato, P. (2019). Work in progress: Improving student views of medicaldevice standards through implementation in a first-term biomedical engineering course. 2019 ASEE AnnualConference & Exposition[3] Accreditation Board of Engineering and Technology. (2021). Criteria for Accrediting Engineering Programs,2021 – 2022. https://www.abet.org/accreditation/accreditation-criteria/criteria-for-accrediting-engineering-programs-2021-2022/#GC5[4] Phillips, M
Technology (ABET) include several student outcomes related to contextualcompetence: “c) An ability to design a system, component, or process to meet desired needswithin realistic constraints such as economic, environmental, social, political, ethical, health andsafety, manufacturability, and sustainability; f) An understanding of professional and ethicalresponsibility; h) The broad education necessary to understand the impact of engineeringsolutions in a global, economic, environmental, and societal context; j) A knowledge ofcontemporary issues” [15]. Several recent studies explored contextual competence inengineering—“the constraints and impacts of social, cultural, environmental, political, and othercontexts on engineering solutions” [7], [8]—but
Education; National Academy of Engineering and National ResearchCouncil, Engineering in K-12 Education: Understanding the Status and Improving the Prospects. The NationalAcademies Press: Washington, D.C., 2009.6. Yasar, S.; Baker, D.; Robinson-Kurpius, S.; Krause, S.; Roberts, C., Development of a survey to assess K-12 teachers’ perceptions of engineers and familiarity with teaching design, engineering, technology. Journal ofEngineering Education 2006, 95, (3), 205-216.7. Bailey, R.; Szabo, Z., Assessing engineering design process knowledge. International Journal ofEngineering Education 2006, 22, (3), 508-518.8. Bailey, R., Comparative study of undergraduate and practicing engineer knowledge of the roles of problemdefinition
(traditionalengineering learning) to more of a hands on approach5, 6, 7 , using technology as a supplemental Page 6.376.1instruction tool8, and catering delivery mechanisms for instruction around the individual Proceedings of the 2001 American Society for Engineering Education Annual Conference &Exposition Copyright © 2001, American Society for Engineering Educationstudent9. Additionally, it is emphasized that when possible to make courses cross-disciplinary6.This type of approach lends itself well to integration of a variety of classes taken by students.Programmatically speaking there is a lack of “tradition” in teaching
and the 2005 Quinn Award for experiential learning, and she was 2014-15 Fulbright Scholar in Engineering Education at Dublin Institute of Technology (Ireland)Dr. Kyle F Trenshaw, University of Rochester Kyle Trenshaw is currently the Educational Development Specialist at the University of Rochester’s Cen- ter for Excellence in Teaching and Learning. He received his B.S. in chemical engineering from the University of Missouri in 2009, and his M.S. (2011) and Ph.D. (2014) in chemical engineering from the University of Illinois, Urbana-Champaign. His research interests include science, technology, engineer- ing, and mathematics (STEM) education; supporting diversity in STEM fields with an emphasis on les- bian
Zilwaukee Bridge, Zilwaukee, Michigan (1988). Dr. Norman served on a six member US Army Review Panel for the Advanced Construction Technology Centers of Excellence at the Massachusetts Institute of Technology and the University of Illinois (1989-1994). He was awarded a visiting Fellowship, Research Awards for Foreign Specialists (earthquake engineering and design) from the Director General, Public Works Research Institute, Tsukuba, Japan (Feb-Mar, 1994). He received appointment as a Visiting Scholar in the Department of Computational and Applied Mathematics, William Marsh Rice University, Houston Texas (Mar-May 1999). Dr. Norman has published over thirty five national
6.127.8program, to add a voice only version.Proceedings of the 2001 American Society for Engineering Education Annual Conference &Exposition Copyright 2001, American Society for Engineering EducationTable 3: Midterm distance education questionnaire MET CS 231 K1 Summer 2000Number of students responding: 9Number of students in the class: 16 Frequency of responsesI.Technology 1 2 3 4 5 AVERAGE1. I found the video quality poor 1 3 5 superior 3.332. I found the voice quality poor 1 3 5 superior 3.443. I recommend the technology poor 1 4 4 superior
Campus study is to address the urgentneed to expand the pool of Science, Technology, Engineering, and Math (STEM) graduates,especially African American, Native American, and Hispanic students. Long-term improvementsin the pipeline of a diverse STEM workforce start with sustaining effective bridge programs thatcan produce more Engineering baccalaureates. To improve retention in Engineering, this studywill conduct academic enrichment programs for racially underrepresented Engineering studentsat three points in their career at the Penn State—entering freshmen, rising sophomores, and risingjuniors. The goals of the study are to (a) increase retention in Engineering among raciallyunderrepresented students in the Penn State system, (b) develop long
started on how to reward professors who taught outstandingbut up-till-now unrecognized courses. But this is an issue for another paper!References 1. “Engineering Criteria 2000: Criteria for Accrediting Programs in Engineering in the United States,” 2 nd ed.,Engineering Accreditation Commission, Accreditation Board for Engineering and Technology, Inc. Baltimore, MD,January 1998, http:/www.abet.org/EAC/eac2000.html. 2. Shaeiwitz, Joseph A., “Outcomes Assessment in Engineering Education,” Journal of Engineering Education,July 1996, pp 239-246. 3. Scales, Katherine, Owen, Christi, Shiohare, Subodh, and Lenoard, Michael, “Preparing for ProgramAccreditation Review Under ABET Engineering Criteria 2000: Choosing Outcome Indicators”, Journal
program outcomes.1) Students will develop a good understanding of student life and the particularities of beingan engineering student, the nature of engineering work, and become familiar with the variousengineering fields.Results: Initially only seven students had an excellent or very good knowledge of engineeringprofession and only four had a very good knowledge of college life. The final survey shows that18 students learned a great deal and more than expected from the program.2) The course materials and activities utilized in the program will be well correlated anduseful in preparing students for success in mathematics, engineering, technology, and thesciences.Results: At the end of the EDGE Program the students as a group showed a
Session XXXX Using the SIMULINK as a Teaching Tool 1 Asad Yousuf, 2Jiecai Luo, 3Chun Ling Huang1 Engineering Technology Department, Savannah State University, Savannah, GA31404/ 2Electrical Engineering Department, Southern University, Baton Rouge, LA70813/ 3Mechanical Engineering Department/ Southern University, Baton Rouge,LA 70813AbstractSIMULINK is a tool for modeling, analyzing, and simulating physical and mathematicalsystems, including those with nonlinear elements and those that make use of continuousand discrete time. As an extension of MATLAB®, SIMULINK adds many
Engineering Technology curriculum, there has been little opportunityfor hands-on experimental and finite element analysis verification of overhung beam theory. Tofill that void, several experimental mechanics class projects were devised and successfullyimplemented by the author and these experiences are documented in this paper.Introduction:This paper describes a series of reproducible projects, including discussion of the major benefitsof utilizing the overhung beam: flexibly supporting multiple experiments with similar set-ups;providing a relatively simple and effective means towards achieving a repeatable, uniformdistributed loading in a laboratory environment (through gravity and beam material density); andproviding a relatively low cost platform
Session 3551 THE DESIGNING OF THE “NATURAL HOUSE”: A STUDENT’S EXPERIENCE Radhika Kotha 3rd Yr., Mechanical Engineering Student Muffakham Jah College of Engineering & Technology Hyderabad, IndiaAbstract“The Natural House”, the inspiration of one of our professors and a project of Centre forEnvironment Studies and Socioresponsive Engineering in our Mechanical EngineeringDepartment, is being designed to “behave” like an “organism” in relation to the surroundingnatural environment. Within