Paper ID #29635A New Framework for Student-Led Cocurricular Design ProjectsMiss Nicole Danielle Trenchard, Harvard School of Engineering and Applied Sciences Nicole Trenchard is an Engineering Sciences degree candidate at the Harvard School of Engineering and Applied Sciences. A member of the Harvard College Class of 2020, her professional focus has been on hardware engineering. In addition to her mechanical engineering coursework, Miss Trenchard has served as a student volunteer, project lead, and state representative with the Harvard SEAS Engineers Without Borders Chapter. In 2019 she started her three-year term as the
Paper ID #18461Preparing Students for a Collaborative Engineering Design Work Environ-ment: A Study of Practicing EngineersMs. Tehya Stockman, Franklin W. Olin College of Engineering I am a current student at Franklin W. Olin College of engineering pursuing a degree in mechanical engi- neering with a concentration in sustainability. I have passions for art, design, education, and sustainability.Miss Claire Elizabeth Kincaid, Franklin W. Olin College of Engineering Student of Mechanical Engineering, research interests include design, education, and materials scienceMr. Thomas Andrew Heale, Franklin W. Olin College of
Paper ID #24891Work in Progress: Bridging the gap between accommodations letters andemerging classroom practicesDr. Alisha L. Sarang-Sieminski, Franklin W. Olin College of Engineering Alisha Sarang-Sieminski is an Associate Professor of bioengineering and the director of SCOPE at Olin College of Engineering. Their work focuses on low-tech design to maximize mobility and amplifying under-represented voices within engineering.Adva WaranyuwatEmily Ferrier, Franklin W. Olin College of EngineeringDr. Alison Wood , Franklin W. Olin College of Engineering Dr. Wood is a distinguished researcher in the fields of both water and
Paper ID #29377Engineering with Engineers: Fostering Engineering Identity throughIndustry ImmersionDr. Yen-Lin Han, Seattle University Yen-Lin Han is an Associate Professor in the department of Mechanical Engineering at Seattle University. Her research interests include micro-scale molecular gas dynamics, micro fluidics, and heat transfer ap- plications in MEMS and medical devices as well as autonomous vehicles and robotics. She is passionate about Engineering Education and experienced in developing inverted classroom lectures and facilitat- ing students’ learning through authentic engineering problems. She is currently
in which your lesson or activity is representative of the processes, habits of mind andpractices used by engineers, or is demonstrative of work in specific engineering fields.i At leastone of those must be within the first four listed, below; i.e., do not only check “other”. Check allthat apply: Use of an engineering design process that has at least one iteration/improvement Attention to specific engineering habits of mind Attention to engineering practices (as described in the NGSS/Framework and as practiced by engineers) Attention to specific engineering careers or fields related to the lesson/activity Other (please describe below)Provide a description of how you will explicitly address
arise, to when they sleep. Quite simply, it isimpossible for someone not to engage engineering in some manner on a reoccurring basis intoday’s modern world. This is a weighty concept for the profession and the practicingengineer. The relationship of engineering and society dictates that engineers operate in goodfaith to ensure the welfare of society is paramount. As such, engineering ethics are a part of thiscomplex relationship and the education of engineering students should be effective in makingthem more ethically minded. This paper will set up virtue ethics as a needed approach inengineering ethics education and exams four virtues as the hallmarks of an engineer: phronesis,justice, fortitude and honesty.engineering as a valued
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may be more universally achievable. Kindness avoids setting up ahierarchy. There are not ‘victims’. We don’t need to understand the particulars of circumstancesand sit in judgement. Kindness is also associated with the positive emotions of happiness andjoy, in contrast with compassion [27]. Further discussion of the affordances of kindness as amodel for engineering are discussed after the literature survey process.Connections between kindness and other concepts that resulted from an attempt to summarizethe literature are shown in Figure 1. While certainly not exhaustive, keeping these relationshipsin mind is helpful.Figure 1. Concept map for kindnessLiteratureA number of publications discuss the idea of kindness and the related concepts of
skill can be accomplished througha concerned engineering faculty speaking about communication, not preaching about it. Byinvolving students in the work that they themselves do, the faculty of every engineering departmentcan stimulate a massive movement in the production of improved engineering text. Along with thediscussion on the need for a greater awareness of how text is presented the assignments that aregiven by each instructor can allow the students to speak their minds through short one- minute writeups at the end of class, quick 1 or 2 sentences comments about previous lectures or assignments, ormemos. These short assignments combined with longer formal reports can provide the studentengineer with ample ground upon which to want to
-value and moreinnovative designs than his or her peers.This has meant designing a sustainable program with these stakeholders in mind: leadingand innovative local employers, engineering graduates, and academia. Each of thesestakeholders requires a specially attenuated message aimed at their particular perspectiveas to the role of leading design engineers. In particular, to involve academia in this processmeans that they too must be able to evaluate not only the technical competence of designfrom within a positivist1 paradigm but also the creative aspects of the work.Herein lies the difficulty. Engineering faculties, such as ours in a research-intensiveinstitution, has no experience or understanding of creative aspects of engineering designand
necessities, not luxuries. Without them, humanity cannot survive. If the love within your mind is lost and you see other beings as enemies, then no matter how much knowledge or education or material comfort you have, only suffering and confusion will ensue. Dalai Lama2What exactly is meant by an engineering based on love? As engineers and engineeringeducators, some of us have encountered traditional applied ethics theories includingUtilitarianism,3 rights-based ethics4 and virtue ethics5 to name a few. As a starting pointfor the present work, a brief description of each of these applied ethical theories shall be
practical-minded people, engineers are better served by learning to approachmoral dilemmas by way of the second method rather than the first. I simply think engineers (andother less-theoretically-inclined people) learn more easily when they use argument as a problem-solving method. It is my contention, however, that engineering ethics courses (and appliedethics courses in general) tend to over-emphasize the “warrants based on precedence,” meaningthat more is done to provide details about paradigm cases than is done to address the otheraspects of the model.At this point it might be reasonable to pause and ask, what is the purpose of an engineeringethics course? Is it to teach future engineers to make better moral decisions? Or is it to
Paper ID #19294Exploring Engineering MindsetDr. George D. Ricco, University of Kentucky George D. Ricco is an assistant professor of electrical and computer engineering at the University of Kentucky. He focuses his work between teaching in the first-year engineering program at UK and research in student progression. Previously, he was the Kern Entrepreneurial Engineering Program Coordinator at Gonzaga University in the School of Engineering and Applied Science. He completed his doctorate in engineering education from Purdue University’s School of Engineering Education. He received an M.S. in earth and planetary
AC 2007-2681: STORYTELLING IN ENGINEERING EDUCATIONRobin Adams, Purdue University Robin S. Adams is an Assistant Professor in the Department of Engineering Education at Purdue University. She also leads the Institute for Scholarship on Engineering Education (ISEE) as part of the Center for the Advancement of Engineering Education (CAEE). Dr. Adams received her PhD in Education, Leadership and Policy Studies from the University of Washington, a MS in Materials Science and Engineering from the University of Washington, and a BS in Mechanical Engineering from California Polytechnic State University, San Luis Obispo. Dr. Adams' research is concentrated on design cognition and learning
, and engineering societies in Portugaland abroad. The goal was to provide cases and situations where students could know andunderstand the importance of engineering in society, to recognize the field of engineering and theapplications that can be performed, as well as the social and ethical responsibility that anengineer must keep in mind when designing and taking decisions.Also under this item, through the professor’s own life experience, students’ awareness was raisedto the importance of life-long learning; he also raised their awareness of cases of engineers whoexperienced several changes in their lives which forced them to redirect their professionalcareers, thus stressing the need for an open-minded approach when planning one’s life.The
change atscale. With this in mind, then, the creation of lesson modules, thinking together about shifts inpedagogical practices, and social media campaigns –all happen against a backdrop of root causeanalysis that frames issues of inequity in engineering education and practice as connected withracism, classism, sexism, ableism, homophobia, and other wider forms of oppression in society.Our work is inextricably, connected with organizing movements and strategies outside the realmof engineering.More specifically, this project and week of action builds on efforts outside of engineeringeducation including work by Myles Horton [13] and the Highlander Center for Research andEducation [14], rooted in Horton's principles of popular education. One of the
Pramod Khargonekar Assistant Director for Engineering National Science FoundationPresentation at the EDC PPC Colloquium February 11, 2014 NSF ENG: Investing in transformative research and education to foster innovations for benefits to society Research Innovation Education Societal Benefits2 November 20, 2015 NSF Directorate for Engineering (ENG) • Engineering Centers Engineering Education and • Engineering Education Centers (EEC
in the paper Mind the Gaps:Engineering Education and Practice, [12]. Speaking to the “misalignment between engineeringeducation and practice” the author makes clear that a “Technical problem-solving model cannotexplain practice” and that engineers can only change the world “. . . if they also deliver theartefacts represented by their problem solutions and designs.”Engineering education urgently needs to revisit how Science, Engineering and Technology areordered and especially how practicing engineers are essential to R&D programs. Practitionersare empowered with an acute awareness of what is commercially practical as to materials,manufacturing processes, and how to employ what is available to be able to create what wasunavailable
Page 9.988.8the child’s mind develops and forever impacted the way we teach children. Edison inventedProceedings of the 2004 American Society for Engineering Education Annual Conference & Exposition CopyrightÆÉ 2004, American Society for Engineering Educationthings that made our lives a bit easier and changed the way we live. Edison was, indeed, a modelof Piaget’s constructivist model of learning.Today Piaget’s theory can still be seen in the modern engineer. Whether one is looking in theworkforce or the college setting where engineers are being trained, Piaget’s model ofdevelopment and learning is prevalent. It is the structure around which many courses, ToyingWith TechnologySM being one of many examples, are successfully developed
Session 3225 Engineering Design – On-Line Rebecca Sidler Kellogg, Jerald Vogel, Vinay Dayal Iowa State UniversityIntroductionTransforming engineering curriculum to an on-line asynchronous format presents manychallenges and opportunities. Engineering design has typically been taught as a collaborativeinteractive course at Iowa State University where student involvement and engagement waspromoted in face-to-face synchronous learning environments. With the dawn of e-learning, anew opportunity to reach students on-line, faculty at Iowa State University re-examined
differentiates engineering from science (which desires completeness ofexplanation regardless of utility).73.2 Can engineering design be deconstructed?Jacques Derrida deconstructed literary texts, showing how the seemingly coherent text with asingle meaning was really a contingent interpretation, with multiple meanings. Can engineeringdesign be similarly deconstructed? Perhaps. While the designer may have in mind a singlepurpose, that purpose is communicated only obliquely to the user through the design itself. Anadmirable design fits form to function so that the design itself implies the use. But thiscommunication is never perfect. The user interprets the design, sometimes using it in ways thedesigner intended, sometimes in ways the designer never
post 60’s educational world, it is in vogue to pass over the fundamentals andlaunch students at a very early age into the holistic writing process. The idea is the fundamentalsof how to write a sentence will be absorbed by little insights and little on-demand discussionswith teachers about nouns and verbs and at some point in time the light will go on and everythingwill come together,” Henderson explains. “Well, sadly that rarely happens. It is particularlybothersome to the engineering mind, because the engineering mind knows that process just isn’tgoing to work. At the very get go. So the engineering mind is desperately wanting somebody tosit down and share the fundamentals first. The other thing the engineering mind craves iswhenever
Paper ID #40224Origami in Materials EngineeringDr. Anuja Kamat, Wentworth Institute of Technology Anuja Kamat is an Associate Professor in the Civil Engineering Department at Wentworth Institute of Technology, Boston. Prof. Kamat received her Ph.D. in Civil Engineering from the University of Arizona, Tucson, and MS in Civil Engineering from the University of Illinois, Urbana Champaign ©American Society for Engineering Education, 2023 Origami in Materials Engineering In the author’s university, Wentworth Institute of Technology, Boston, a newer electiveand a lab-based
, E. (1995). “Practitioner and Student Recommendations for an Engineering Curriculum.” Journal of Engineering Education, ASEE, 84(3), 241-248.9. Lienhard, J. H. (1996). “The Eye of the Mind in 21st Century Engineering.” Presented at the ASEE Gulf- Southwest Section Conference, The University of Texas at San Antonio, San Antonio, TX.10. Rasmussin, E. (1995). “New ASCE Report Urges Changing Education by a Matter of Degrees.” ASCE News, 20(11), 1 & 6.Biographical DataDr. Enno “Ed” Koehn is Professor and Chair of the Department of Civil Engineering at Lamar University,Beaumont, TX. Professor Koehn has served as the principal investigator for several construction research anddevelopment projects and has
Session 3520 Engineering Programming Language Concepts Holly Patterson-McNeill, Carl Steidley Texas A&M University-Corpus ChristiAbstractThe study of programming languages is beneficial to all levels of programmers. The first part ofthis paper reviews some of the reasons for studying programming languages. To isolate some ofthe issues of language design, definition, and implementation, mini-languages have been used inProgramming Languages courses. Mini-languages are small and complete, yet restrictedlanguages. They have a small syntax and simple semantics. Mini-languages and their
Session 3353 MATLAB & Freshman Engineering Patrick E. Devens Virginia Polytechnic Institute & State UniversityAbstractVirginia Polytechnic Institute and State University’s (VPI&SU) College of Engineering hasmade the switch. MATLAB1 is now the problem-solving software used by the freshmanengineering program. The reasons for switching to MATLAB, how MATLAB was integratedinto the existing introductory course, and some lessons learned after implementing MATLAB aredescribed below. The purpose is to show both positive and negative aspects of switching toMATLAB in
. Page 11.570.3 Proceedings of the 2006 American Society for Engineering Education Annual Conference & Exposition Copyright ø 2006, American Society for Engineering Education Session 1823On the other hand, higher knowledge requires the use of innovative mind processes and is oftenreferred to as the creative use of insight. Some refer to this as using innovation to solve prob-lems that previously were unknown. In engineering, higher knowledge has traditionally beeninvolved in graduate programs. However, in the knowledge age this will change. Knowledgeage engineers (students & faculty) must master the ability to routinely
faster way and in a larger community. For engineers, the decisionprocess is even more complex once the implications have serious impact not only to the targetcustomers but also to the society as a whole and to the environment. This is an aspect that showsthe necessity for engineers to search for the acquisition of an ability to respond to socialnecessities having in mind the cultural aspects when developing a project.The effects of this aspect in engineering formation implies a different approach providing thefuture engineers a notion about policy, ethics and social sciences, which are so important toprepare them to the future work market that will require the respect and promotion of society andenvironment as assets1.Most of social groups have
SESSION 3454 UTILIZING ENGINEERING ENTREPRENEURS TO INSTILL AND ENHANCE ENTREPRENEURSHIP IN TODAY’S STUDENT POPULATION Vincent Gallogly, Adjunct Professor The Cooper Union, Albert Nerkin School of Engineering, New York City.ABSTRACTMeeting the dual challenges presented in today’s engineering schools by the bright,energetic student with the dream of turning her ideas to riches, and awakening the interestof the research, detail oriented, single solution student to the vagaries of the market placeand the entrepreneurism; harnessing energy and enthusiasm, without stifling it, teachingthe basics of
Introduction to Engineering courses are in close alignment withthe standard’s based kits developed by the National Science Resource Center (Science andTechnology for Children – STC) and those developed by Lawrence Hall of Science at theUniversity of California, Berkeley (Full Option Science System – FOSS). The methodologyused in the teaching of science focuses on a hands-on/minds-on approach. Teachers must havethe content background to help their students develop meaning from their experiences. In orderto do this at the elementary level teachers must get past their own fears about their lack of abilityand/or knowledge in the areas of math and science. Through the Engineering for Educators classit was expected that the preservice teachers in elementary