Paper ID #36613Supporting sustainable design through holistic situatedlearning: A case study in transdisciplinarityLinda Vanasupa Linda Vanasupa is a professor of materials engineering at Franklin W. Olin College of Engineering and emeritus professor of materials engineering, California Polytechnic State University. They are currently exploring transdisciplinary modes of discovery and transformational learning.Olivia SeitelmanStella Starkelizabeth west © American Society for Engineering Education, 2022 Powered by www.slayte.com Supporting
problems or gowith the first solution that comes to mind. Our goal is to understand how students’ conceptionsof design develop over the course of a design project. We have modified a Conceptions ofDesign Instrument7 that encompasses a broad range of design activities to be sensitive tostudents’ design experience with a simulated engineering design environment (Energy3D). Wehypothesize, based on previous research8,9,10 that students’ post-test responses would show achange towards more informed design behaviors.Research QuestionsThis research seeks to understand:RQ1: What design activities became MORE important to students after a design project?RQ2: What design activities because LESS important to students after a design project?RQ3: After a design
Figure 4. The Think Loft at Solvay Advancedcreative than engineering students, there Polymers in Alpharetta, GA.was no statistical difference between themeasured scientific creativity levels ofthese same students.32 The above study on people in the arts and engineering examined thehypothesis that creativity is not valued in modern engineering education.31 This study concludedthat engineering education does not embrace many of the open-ended non-traditional principlescommonly associated with innovation such as: keeping an open mind, learning to fail andencouraging risk. Another principle that was not typically followed by engineers in this studywas the search for multiple answers. A similar study we
Paper ID #9427Engineering for Colonial TimesMs. Mary McCormick, Tufts University Mary McCormick is a PhD student in STEM Education at Tufts University. She received a Bachelor of Science in Civil Engineering at University of Massachusetts Lowell, and Master of Science in Civil Engineering at Tufts University. She is currently exploring how elementary students’ nascent abilities for engineering design emerge during integrated engineering and literacy activities. Page 24.498.1 c
Paper ID #34100Authentic Engineering Design AssessmentMiss Joanna AmbrosioDr. M. David Burghardt, Hofstra University Dr. M. David Burghardt, professor of Engineering, founder and co-director of the Center for STEM Research, has been the principal or co-principle investigator on 13 NSF projects primarily dealing with engineering in STEM.Dr. Deborah Hecht, Center for Advanced Studyin Education As Director of the Center for Advanced Study in Education, at the CUNY Graduate Center I am involved in a wide range of educational evaluations of funded and local projects. I also mentor graduate students interested in careers in
engineering problem. Inthe process the student teams are engaged in the following activities (as given to students): Understand and/or clarify step-by-step (e.g. fill-in missing steps) how applied mathematics is used to model an engineering system of interest Page 26.161.7 Create appropriate and mathematically correct simulation models using MATLAB incorporating relevant parameters With specific scenarios in mind, perform MATLAB simulation runs, plot results, and create animations Prepare a technical report (with CD of all relevant computer files) and make a short presentation to the class (you can
-489.6. Billett, S. (2002). Critiquing workplace learning discourses: participation and continuity at work. Studies in the Education of Adults, 34(1), 56-67.7. Bransford, J. (2007). Preparing People for Rapidly Changing Environments. Journal of Engineering Education, p.1-3.8. Bransford, J. D., Brown, A. L., & Cocking, R. R. (2000). How People Learn: Brain, Mind, Experience, and School: Expanded Edition. Washington, D. C.: National Academy Press.9. CAEE. Enabling Engineering Student Success. Final Report of the Center for the Advancement of Engineering Education, http://www.engr.washington.edu/caee/final_report.html10. Candy, P. (1991). The growth and interest in self-directed learning. In P. Candy (Ed
Session Number 1793 The Music of Engineering Kathleen M. Kaplan, D.Sc., John A. McGuire, Lt Col John J. Kaplan (Ph.D., J.D.) USAF Howard University/University of Northern Colorado/USAFAbstractThe relationship between music and engineering can be measured. There isoverwhelming empirical evidence that link these two fields, yet few researchers havestudied the relationship. This paper is not about the artistic and technical applications ofrecording technology, but rather the progression of music that has fostered theengineering feats of today.Music has motivated more than the heart of the engineer, it has driven the field
Engineering Technology Departmental Leadership Scott Danielson, Thomas M. Hall, Jr., John Hansen Arizona State University/Northwestern State University/University of HoustonAbstractThis paper discusses important aspects of leadership as applicable for engineering technologyeducational unit leaders and senior faculty. The paper is divided into four primary areas and hasbeen used as the basis for an engineering technology leadership workshop with new leaders orindividuals preparing for leadership roles. The content areas are: a) leadership versusmanagement; b) situational leadership for educators; c) motivating people in the academicsetting; and, d
Session 3453 Engineers Need Mentors Too! Sayward H. Touton1, Cory P. McDonald1 Gretchen L. Hein2, Amy E. Monte2 Department of Civil and Environmental Engineering1 Department of Engineering Fundamentals2 Michigan Technological University Houghton, MIAbstractThe Graduate, Undergraduate Initiative for Development and Enhancement (GUIDE) program atMichigan Technological University (MTU) is a unique scholarship program that couplesunderrepresented students
Session 2470 Summer Bridge to Engineering1 M. Catharine Hudspeth, J. Winthrop Aldrich California State Polytechnic University, PomonaIntroduction For the past six years Cal Poly Pomona’s colleges of Engineering and Science havecollaborated to conduct a four-week residential transition program, Quest I, for incomingminority students and selected community college students. This program, funded jointly by thecampus, the National Science Foundation Alliance for Minority Participation (AMP) grant, andCalifornia MESA, has served three hundred students. Three threads will be discussed
the blend of practical andtechnical education offered at a co-op school. While the debate between which of these areas inmore important may go on forever, there is no debate in my mind regarding the character that isbuilt when these two are blended. In my opinion, this character is a competitive advantage thatdrives success in any organization.” Tom Parker North American Supply Chain Manager The Dow Chemical Company UC Co-op Recruiter for Dow Chemical UC Chemical Engineering Class of
habits of mind. Thesehabits of mind describe how values, attitudes, and thinking skills are linked to engineering.Computational thinking has also previously been linked to engineering beyond simplyprogramming by Wing in 2006. Wing defined computational thinking as the overlap betweenmathematical thinking and engineering thinking.In 2011, The Computational Thinking Teacher Resources developed as the result of acollaboration between the Computer Science Teachers Association (CSTA) and the InternationalSociety for Technology and Education (ISTE). This collaboration produced a list ofcharacteristics that define and describe computational thinking and its qualities. In 2012, Googlealso released a list of computational thinking competencies and they
analytical, computational, and/or experimental. The creation of the online course from the existing in-person, on-site course afforded anopportunity to take advantage of reconsidering the delivery of both the theoretical content andthe practical hands-on component. The conversion of an in-person course to an onlineasynchronous course requires more than simply capturing in-class video and making it available.For the Anytime-Anywhere Engineering Experimentation course, we used a learner-centeredapproach to course design. We employed a backwards design model in the creation of the coursecontent. Wiggins and McTighe describe backwards design as “an approach to designing acurriculum … that begins with the end in mind and designs towards that end”.[8
AC 2008-1144: INTERNATIONALIZATION OF ENGINEERING EDUCATIONMichael Mariasingam, University of Wisconsin - Madison Michael A. Mariasingam, Research Associate in the College of Engineering, University of Wisconsin–Madison, taught electronic engineering for many years in different countries before his graduate studies in continuing and vocational education at UW–Madison. His PhD dissertation focused on quality criteria and benchmarks for online degree programs. Mariasingam helped establish new programs and faculties of engineering in Singapore, Malaysia, India, and Zimbabwe. He served as chairman, Department of Electronic Engineering and then acting dean, Faculty of Engineering, at
within acommunity that acknowledges their expertise in a particular craft or discipline and shareinformation competently with those who are not experts."The Kern Family Foundation is helping engineering schools change their pedagogy to developthe entrepreneurial mindset in undergraduate engineers [12]. The Kern EntrepreneurshipEngineering Network (KEEN) consists primarily of small private engineering schools to promotethis change. Attributes of the KEEN entrepreneurially minded engineer are integrity, tenacity, Page 26.1507.5ethics, creativity, intuition, a deep knowledge of engineering fundamentals, the ability toengineer products for
, October 4 (2013): B18.15. Herreid, C. F., & Schiller, N. A. (2013). Case studies and the flipped classroom. Journal of College Science Teaching, 42(5), 62-66.16. Lehmann, M., Christensen, P., Du, X., & Thrane, M. (2008). Problem-oriented and project-based learning (POPBL) as an innovative learning strategy for sustainable development in engineering education.17. Vygotsky, L. (1978). Mind and Society. Cambridge, MA: Harvard University Press.18. Mader, D.M., 2002. Design for six sigma. Quality Progress July, 82–86.19. Treichler, D., Carmichael, R., Kusmanoff, A., Lewis, J., & Berthiez, G. (2002). Design for Six Sigma: 15 lessons learned. Quality Progress, 35(1), 33.20. Fautch, Jessica M. "The flipped classroom for teaching
that theymay or may not know. In Engineering 1 they are taught that good brainstorming means gettingeverything down on paper in thumbnail sketches, drawings that try to capture the thinking. Theylearn that ideas not expressed in a communicable medium will exist in the designers’ minds alone.I demand that they sit and focus on generating ideas for 20 minutes at a time, no more. I tell thestudents that probably 75% of their ideas are going to be sub-par, but that’s normal. So, only oneout of four ideas will be developed into a final solution.During the final development toward the solution, students are instructed to pay close attention tothe designs that they thought would never work; they learn that pieces of these designs maybecome parts of
AC 2012-3433: STRENGTHSQUEST FOR ENGINEERSDr. Shelley Lorimer P.Eng., Grant MacEwan University Shelley Lorimer, P.Eng., is the Chairperson of the Bachelor’s of Science in Engineering Transfer pro- gram (BSEN) at Grant MacEwan University in Edmonton, Alberta. She teaches undergraduate courses in statics and dynamics, as well as courses in engineering professionalism. She is currently participating in a research project with Alberta Innovates Technology Futures in the oil sands and hydrocarbon recov- ery group doing reservoir simulation of enhanced oil recovery processes. She has a Ph.D. in numerical modeling from the University of Alberta, also in Edmonton.Elsie Elford, Grant MacEwan University Elsie Elford
, her bubbly personality was evident. She wasperfectly made up and wore jewelry and perfume making an immediate impression that wasdifferent from that of most of the dozens of other women we have interviewed over the yearsthrough the MIDFIELD project. It is her story that begat the title of “Accidental Engineer.”Bethany is a white woman who comes from a family where neither parent attended college. Hercareer plan was to be a doctor and she applied to A-State with that in mind. She was acceptedinto a program, Diamonds in the Rough, for students who the college of engineering believeshave potential that may not be demonstrated by grades or test scores
Proceedings of the 2005 ASEE Gulf-Southwest Annual Conference Texas A&M University-Corpus Christi Copyright © 2005, American Society for Engineering EducationKeeping these features in mind, two independent and yet integrated curriculums weredeveloped. Table 1 illustrates the curriculum model for Industrial and ElectricalEngineering degrees. The curriculum is made of two main segments: masters of sciencein Industrial Engineering and masters of engineering in Electrical Engineering. TheElectrical Engineering branch consists of seven specific courses in two major areas,Electronic and Control. The Industrial Engineering branch consists of seven specificcourses with emphasis in Manufacturing, Design
Abort, Retry, Ignore – Electrical Engineering for Non-Engineers Multimedia Session 2793 Monica A. Mallini-Rourke Alexandria Research Institute Virginia Polytechnic Institute and State University 206 N. Washington Street Suite 400 Alexandria, VA 22314 mmallini@vt.eduAbstract - Electrical Engineering 2300 is a required course for certain undergraduate and graduate computer sciencestudents at Lamar University. This course for non-engineering majors covers a
widening gap in systems engineering expertise in the workforce. There is aparallel need to develop “entrepreneurally-minded” engineers (i.e., those who can identifyopportunities to create or improve products, and to implement plans to capture such opportunities).Engineering graduates need the capability and competency to efficiently and effectively engineerinnovative systems that satisfy customer and user operational needs, within budget, schedule,technology, and risk constraints. The solutions developed must incorporate societal impacts as wellas regulatory constraints. As evidenced by our definitions, there are strong overlap between Page
Paper ID #21701Work in Progress: Sustainable Engineering for non-EngineersCapt. Katherine Sievers, US Air Force Academy Katherine Sievers is a Senior Instructor in the Civil Engineering department and the US Air Force Academy. She teaches courses in Sustainability, Environmental Engineering, Fluid Mechanics, and Introductory Statics. Prior to teaching she worked as a Bioenvironmental Engineer for three years. She received her BS in Environmental Engineering from the US Air Force Academy and her MS in Environmental Engi- neering and Science from the Air Force Institute of Technology.Prof. Melissa Stewart Beauregard
we had not intended or realized.About the AuthorsJ: Because of the autoethnographic33 approach, personal background details matter, so we willinclude them here.I studied chemical engineering in California and spent two and a half years as an energyconsultant before deciding to obtain my PhD. I started exploring Quakerism about 3 years agoand felt strongly connected to this community. There is not a common theology or creedamongst Quakers; while some consider themselves Christian, I do not identify Jesus of Nazarethas my personal savior. I live my life through reflecting on my inner light, and have a regularBuddhist mindfulness practice.C: My own history includes a BS in industrial engineering and a Master of Education degreefocusing on math
pharmaceutical drug to get well then Protect is making a lot more money compared to if only two week supply is needed. Sam researches into this theory more and concludes that his co- worker is correct. He is now left with the dilemma of what to do next. Case 3. Developing the "Particle Replacer" Scott Holloway When I was young, my mind boiled with ideas. I dreamed of engineering what I thought of as the "particle replacer," or object replicator. Taking a hint from Star Trek: The Next Generation, this invention would scan any object that one may have; say, a gold ring. From the “raw materials“ bin of the device it would use the raw material (e.g., dirt) that is given an exact copy of the same gold ring would be produced. This device would
togetherto make electricity as they investigate how motors work. Squishy circuits are an electrical circuitanticipatory set. Opening questions include “where do you use electricity in your life?” and“what are some ways that your life would change without electricity?” Inquiry on the art botsallows for a deeper understanding on how electricity travels and how off-set motors function. Anempathetic connection is focused on boy who had developed acute flaccid myelitis and needsassistance with coloring projects [20]. Engineering of the art bot then led to students naming anddecorating their bots while keeping their stakeholder in mind. Returning the shared conversationto the boy allowed for learners to reconsider their purpose. Play included in the
Session 3592 DECONSTRUCTING ENGINEERING EDUCATION PROGRAMS (DEEP) Ilene Busch-Vishniac, Jeffrey P. Jarosz Johns Hopkins UniversityThe shortage of women in the engineering workforce has been a persistent problem in spite ofsignificant efforts over decades to improve the situation. While the number of women increasedas a result of the various focused efforts, the profession is no longer seeing improvements. Thereis even evidence that the percentage of women in engineering student bodies is backsliding ratherthan improving. This has led many to question
acommon core course required of all students each semester. In this course, “Engineering Clinic”,students work in interdisciplinary teams to complete projects that are often contracted fromactual corporate settings through a partnership with regional sponsors; project results arepresented each semester formally and in professional demeanor. In the junior and senior years,the audience for these reports includes the wider engineering community and corporate sponsors.In addition to the thorough integration of team work and interdisciplinary cooperation into theprogram, a “hands-on, minds-on” approach integrates the subject matter of the more theoreticalcourses with the projects being worked on that semester; a “just-in-time” pedagogy insures thatthe
visionfor the future; (2) transform engineering education to help achieve the vision; (3) build aclear image of the new roles for engineers, including as broad-based technology leaders,in the mind of the public and prospective students who can replenish and improve thetalent base of an aging engineering work force; (4) accommodate innovative Page 24.945.4developments from non-engineering fields; and (5) find ways to focus the energies of the 3different disciplines of engineering toward common goals.” A pan-engineering BOK, thatencompasses technical and