Paper ID #37295Conceptualizing First Principles Thinking in EngineeringEducationKimia Moozeh Kimia Moozeh is a Research Associate in Engineering Education at Queen's University, Canada and a Chemistry instructor at Durham College, Canada. She earned a B.S. and M.Sc. in Chemistry from University of Toronto, and a PhD in Engineering Education also from University of Toronto. Her research interests focus on lab-based learning, metacognitive skills and student motivation. She is also the cofounder of ladderane.com, a platform to create customizable chemistry virtual experiments.Lisa Romkey (Associate Professor
(AISC) jointly sponsor the Student Steel Bridge Competition, an intercollegiatedesign-build-construct engineering competition. CSU, Chico has consistently assembleddedicated bridge teams that have shown strong performances at the regional and national levels.Secondly, “Minds in Motion” was an ambitious outreach event in honor of the 150th anniversaryof ASCE. In its debut year, the event brought 1000 visitors to the CSU, Chico campus toexperience the fun of engineering, and resulted in the participation of over 60% of the entireCSU, Chico civil engineering student population as volunteers.CSU, ChicoA short description of CSU, Chico will help provide context to subsequent topics. The campus islocated in the center of the rural, north-central
AC 2010-1587: IMPROVING ENGINEERING EDUCATION PEDAGOGY VIADIFFERENTIATED INSTRUCTIONJohn Marshall, University of Southern Maine John Marshall received his Ph.D. from Texas A&M University and is the Internship Coordinator for the Department at the University of Southern Maine. His areas of specialization include Power and Energy Processing, Applied Process Control Engineering, Automation, Fluid Power, and Facility Planning.William Marshall, Alief Independent School District William Marshall is the Director of Instructional Technology and Career & Technical Education for the Alief Independent School District in Texas. He provides supervision of Program Managers in the areas of
. Dorset House Publishing, 2001.[5] Steve McConnell. Rapid Development. Microsoft Press, 1996.[6] Philip Ross. “The Expert Mind.” Scientific American, July 24, 2006.[7] David Socha, Valentin Razmov, Elizabeth Davis. “Teaching Reflective Skills in an Engineering Course.” InASEE, Jun. 2003.[8] Joel Spolsky. “The Joel Test: 12 Steps to Better Code.” Available athttp://www.joelonsoftware.com/articles/fog0000000043.html . Page 12.198.14Appendix: Full list of questions from the most recent end-of-term student questionnaireLegend: MC = multiple choice question; YN = yes-no question; FF = free-form questionDevelopment SystemMC Teams of size 4
AC 2008-1159: ETHICAL THEORY FOR ENGINEERS: AVOIDING CARICATUREAND INFORMING INTUITIONSTravis Rieder, University of South Carolina Page 13.569.1© American Society for Engineering Education, 2008 Ethical Theory for Engineers: Avoiding Caricature and Informing Intuition1A professor of engineering ethics recently commented that she finds it difficult to teachethical theory to engineers, as many students are strongly attracted to an intuitionistmodel of ethics – intuitionist here meaning that the students tend to make ethicaljudgments based largely on how a situation strikes their ‘moral sensibilities.’ One reasonfor this may be that
Paper ID #22319Social Network Analysis: Peer Support and Peer Management in Multidisci-plinary, Vertically Integrated TeamsJ. Sonnenberg-Klein, Georgia Institute of Technology Assistant Director, Vertically Integrated Projects (VIP) Program, Georgia Institute of Technology; Doc- toral student in Education at Georgia State University, with a concentration in Research, Measurement and Statistics; Master of Education in Education Organization and Leadership, University of Illinois at Urbana-Champaign; Bachelor of Science in Engineering Physics, University of Illinois at Urbana- Champaign.Dr. Randal T. Abler, Georgia Institute
Paper ID #23808The Effectiveness of a Multi-year Engineering EnrichmentDr. Linda Hirsch, New Jersey Institute of Technology LINDA S. HIRSCH is the Assistant Director for Research, Evaluation and Program Operations for the Center for Pre-College programs at New Jersey Institute of Technology. Dr. Hirsch has a degree in educa- tional psychology with a specialty in Educational Statistics and Measurement from the Graduate School of Education at Rutgers University. She has been involved in all aspects of educational and psychological research for over 20 years. Dr. Hirsch has extensive experience conducting longitudinal research
AC 2011-496: RESIDENTIAL RENEWABLE ENERGY SOURCES CASESTUDIES OF RETURN ON INVESTMENTLouis Reifschneider, Illinois State University Associate Professor Registered Professional Engineer Research interests include product design, net- shape manufacturing, and sustainable technology. Page 22.1245.1 c American Society for Engineering Education, 2011 Residential Renewable Energy Sources Case Studies of Return on InvestmentRenewable energy is a popular topic today because of concern over rising energy costs. Federaltax credits for renewable energy
Paper ID #41046The Forgotten Horseman: Digital Implementation of Arithmetic Division andResources to Learn and Teach Its ComplexitiesDr. Peter Jamieson, Miami University Dr. Jamieson is an associate professor in the Electrical and Computer Engineering department at Miami University. His research focuses on Education, Games, and FPGAs.Nathaniel David Martin, Miami University ©American Society for Engineering Education, 2024 The Forgotten Horseman - Digital Implementation of Arithmetic Division and Resources to Learn and Teach Its ComplexitiesAbstractOf the four arithmetic functions, Division is the
these develop the abilities of students totraverse similar though processes in evaluating work environments.ConclusionSpiral Dynamics as a social relational model offers many unique, trans-cultural insightsinto engineering workplace cultures, and needs to be explored as a way of preparing thenext generation of global engineers. It also provides a springboard for mindfulness and Page 22.1639.10rational development of empathy, perhaps the most important emotional technique for theindividual traversing the complex global workplace.1. Beck, Don, and Cowan, Chris Spiral Dynamics, Blackwell Publishers, Cambridge, MA, 19962. Beck, Don, http
list of factors of professional responsibility youmay have learned about, and a set of places where you may have received training in thesefactors. For each factor, please indicate whether you received training in any of the places listedin the column below.”We use as our focal independent measures whether respondents reported that they have formaltraining in undergraduate education in the following: ● “Ethical responsibilities” (1=yes, 0=no), ● “Being mindful of responsibilities to public welfare” (1=yes, 0=no), and ● “Understanding societal consequences of engineering design” (1=yes, 0=no).Because this is a sample of employed engineers who had been out of college for years or evendecades, we asked only whether they received any sort
engineering from Texas A&M University. His educa- tion and research interests include project management, innovation and entrepreneurship, and embedded product/system development. c American Society for Engineering Education, 2020 A Study of Secondary Teachers’ Perceptions of Engineers and Conceptions of EngineeringAbstractPeople’s personal beliefs and perceptions can be explored and interpreted byinvestigating the mental images that they draw with regards to a specific subject. Withthis in mind, many researchers utilize the Draw-An-Engineer Test (DAET) instrument toevaluate students’ and teachers’ perceptions of engineers and engineering throughdrawings. Previous research shows that
Paper ID #24992Engineering a New Reality: Using virtual reality to cultivate inclusive mind-sets among engineering facultyClaudio Vignola, Arizona State Univ. Poly Claudio is a Bachelor and Master Engineering student at Arizona State University that enjoys human interaction and it is currently interested in having an impact on culture and society. He considers himself a practical aesthete since he has a major appreciation for arts and beauty but he also values the usefulness of things. Claudio aims for his work to be meaningful and he is passionate about having an impact on other people lives. He is currently working at
]. The ability of human beings to beempathetic towards one another and create designs with other people in mind may become evenmore vital in the age of artificial intelligence. This necessitates its inclusion in engineeringclassrooms. Flanagan found that through the incorporation of empathy into first-year engineeringcurriculum, students begin to think about whom they are solving problems for and their role incommunicating with those stakeholders [5]. This paper will further examine this phenomenon byinvestigating how empathy modules in a first-year class affect engineering identity. If there is ashift in the role of an engineer that the student is identifying with, how does that interact withtheir engineering identity?Theoretical Frameworks
course should be residential, meaning that the students inthe course live on the same floors in a residence hall, or non-residential in character. Instructorsalso have discretion as to whether to propose their FYC to count toward the college’s three-course graduation requirement in writing.In putting together Thinking Like an Engineer as a first-year course, the primary learning goal wehad in mind was to counter the stereotype that engineering was a field of inquiry whosedynamics mainly stemmed from the application of technical knowledge drawn from the fields ofmathematics and the natural sciences. We were interested in getting students to see engineeringas evolving and interdisciplinary, as a field within the liberal arts (as noted in the
AC 2007-169: DEVELOPMENT OF GLOBAL ENGINEERING EDUCATION INCHINA FOR WESTERN MICHIGAN UNIVERSITY ENGINEERING STUDENTSSaid Abubakr, Western Michigan UniversityDewei Qi, Western Michigan University Page 12.534.1© American Society for Engineering Education, 2007 Development of Global Engineering Education in China for Western Michigan University Engineering StudentsAbstractIn collaboration with Sichuan University in China, Western Michigan University had establishedand developed the China Summer Engineering Tour for the first time in 2006 and is in theprocess of launching a second tour in 2007. The program is designed to provide a uniqueopportunity for both
Copyright © 2005, American Society for Engineering Education”off and into other fields of study. Other students, who make it across the bridge, struggle to seethe links among all the areas of science, mathematics, and social science they have been requiredto study and the links to the practice of engineering. Once students cross this bridge, they havemany roads to choose from to the various engineering disciplines. Are they prepared to decide?What then should this bridge be like? What should happen as students cross this bridge? Wehave attempted to identify the essential requirements for a common integrated and connectedfirst-year engineering curriculum:• Experience Engineering Students need a hands-on, minds-on exciting set of experiences that
professional issues on the students’ minds. Alums are alsohelpful with our “chase-an-engineer” exercise, described below.Presently there are four tracks or specialties offered: Environmental and Water QualityEngineering, High Performance Structures, Geotechnology, and Information Technology. Thecurricula corresponding to the individual tracks are fairly structured; each includes 3 requiredsubjects, two planned electives, and one free elective. The six technical subjects is the samenumber as required for the Master of Science degree. Some of the subjects were created ormodified for the M.Eng. program while others are part of our normal offerings.Irrespective of specialty, all M.Eng. students take a Concepts of Engineering Practice subjectwhich covers
increasingly complex world, higher educationinstitutions are more and more promoting entrepreneurial mindset and integratingentrepreneurship elements in their programs. Integration of entrepreneurially minded learning inengineering courses, which promotes entrepreneurial mindset and skills, is an approach that isgaining momentum among individual faculty members. This paper presents such effort involvinga junior level engineering statistics course. Given the abundance of data in today’s world and theimportance of extracting meaning out of them, statistics is an important tool for any disciplineincluding engineering. This importance is summed up in the following quote from WalterShewhart, who is known as the father of statistical quality control: “The
becoming smart.” maleOther students reflect on their experiences with peers at MT and the sort of students theyencounter on the campus. “Oh there’s just not that big of a variety of people here, and that’s just what it comes down to….It’s not that big of a deal….You could say that the kids who go here, their minds are logic based, and other people’s aren’t.” male “Sometimes in a place like this it’s harder [to have right-brained interests] because you meet a lot of left-brained people.” female “There aren’t any non-engineering students. Well there’s a couple but they’re mostly upperclassmen and it’s kinda hard, you know because they’re not where
that include more than 250 different 3-D mechanical puzzles, many games,mind teasers, LEGO® Mindstorms competitions, and design projects, each of which illustratesprinciples and strategies in inventive problem solving. In addition, students use patent-relatedsoftware packages and websites. These activities allow for self-paced, semi-guided explorationthat improves self-esteem and encourages questioning and daring.This new eight-dimensional methodology has been taught to engineering and computer sciencestudents in upper undergraduate and introductory graduate levels. Recently, students from othercolleges such as Social Sciences, Arts and Humanities, Business and Marketing joined classesand workshops where this new methodology has been taught
. I feel like other people perceive them just like quiet people who are narrow-minded right into their work, but I don't know…My experience has been super different. I think there isn't really a set mold for an engineer.Often, when defining a new and complex concept, its easiest to start with what that thing is notand then move towards describing what it is, and we found the students often describing whoengineers are not. We must also remember that, though these students have heard their instructorsdescribe engineering/engineers to them many times, they likely have had few or no situationswhere someone has asked them to describe it themselves.What Engineers DoThe students emphasized “people” when reflecting on how engineers
. Jensen and K. J. Cross, "Student Perceptions of Engineering Stress Culture," presented at the ASEE Annual Conference & Exposition, 2019.[9] K. Jensen, "The Time is Now to Build a Culture of Wellness in Engineering," Studies in Engineering Education, vol. 2, 2021.[10] I. Miller, S. Lamer, A. Brougham-Cook, K. J. Jensen, and H. M. Golecki, "Development and Implementation of a Biometrics Device Design Project in an Introductory BME Course to Support Student Wellness," Biomedical engineering education, pp. 1-8, 2022.[11] I. Miller and K. Jensen, "Introduction of Mindfulness in an Online Engineering Core Course During the COVID-19 Pandemic," Advances in Engineering Education, 2020.[12] R. Paul, D. Dedemus, M
recently the topics of globalization3 of science, technology, and engineering have beendelineated in such popular works such as “The World is Flat4,” by Thomas Friedman, “A WholeNew Mind Moving from the Information Age to the Conceptual Age5,” by Donald Pink. Theformer work in particular has been the focus of considerable attention in academia as well as theASEE organization where the Keynote discussion in the 2005 Annual Conference noted thetrends on engineering graduation rates.The full-time as well as any adjunct faculty teaching in an engineering technology curriculumshould be focused on administrating course lectures, homework assignments, course termprojects and classroom instruction via worked examples in these areas. It is strongly
recommendations expressed in this material are those of the author(s) and do notnecessarily reflect the views of the National Science Foundation.References1. Borkowski, J. G., Carr, M., & Pressley, M. (1987). “Spontaneous” strategy use: Perspectives from metacognitive theory. Intelligence, 11(1), 61-75.2. Bransford, J. D., Brown, A., & Cocking, R. (1999). How people learn: Mind, brain, experience, and school. Washington, DC: National Research Council.3. Chopra, S. K., Shankar, P. R., & Kummamuru, S. (2013, August). MAKE: A framework to enhance metacognitive skills of engineering students. In Teaching, Assessment and Learning for Engineering (TALE), 2013 IEEE International Conference on (pp. 612-617). IEEE.4. Cross, D. R., &
design skills and concepts[2]. It not only helps them tomake connections between the classroom and the real world, but instructs them in vital skillssuch as problem solving, critical thinking, communication, and team building[3], [4]. Theseengineering “habits of mind” become part of a student’s mental toolkit, teaching them skillsnecessary to solve problems and derive meaning from their world[5]. These tools are beneficialto them regardless of chosen professions, and teaches them to function intelligently andthoughtfully in a modern technological society[4].In addition to becoming technologically literate and educated in the engineering habits of mind,youth must also see engineering as a viable career option. There is a growing body of
not change their minds, 3 of the 20 covered by this study did. Two who were initially intent on majoring in engineering decided not to pursue an engineering major while one who was initially not intent on majoring in engineering switched to engineering. This was not an entirely unexpected outcome as students gained greater understanding of what possibilities engineering provides and greater understanding of the level and nature of the effort required to succeed in the discipline. In an attempt to evaluate the efficacy of the ECIE approach, the 2012 students were asked the
programs span five academic years and include an average of six co-opquarters for a typical baccalaureate degree and our graduates are highly sought by employers.However, both the American Society of Civil Engineering and the National Academy ofEngineering have advocated a Master’s degree as the first professional degree for practicingengineers. With this in mind, in 2002-2003 the Department of Civil and EnvironmentalEngineering at the University of Cincinnati initiated a combined five-year BS and MS degreeprogram in Environmental Engineering (the Accelerated Engineering Degree (ACCEND)Program) with cooperative and research experiences integrated with the education. The BScomponent of the degree will be in Civil Engineering, and the MS component
with course content in Calculus I andCalculus II. The modules will demonstrate to students how calculus is applied to solve realworld engineering problems. It is important, as educators, to realize that ―the mind is not avessel to be filled, but a fire to be kindled‖--Plutarch. So, while engineering students may not beinterested in math, they are intrigued by the application of math to problem solving in the field.In this context, emphasizing the importance of calculus to engineers will encourage deeperstudent learning.Second, the project fosters student persistence in engineering by developing a mentorship Page 22.1651.2program that will aid
is more and moreevident the importance of engineering sciences applications in the global world. Industries,governmental agencies, Banks, commercial sector and even civil social groups need engineersprepared in order to solve complex problems and to develop innovative solutions. Page 22.1442.5Why engineers? Because engineers are prepared to apply the principles of science andmathematics to develop solutions to solve problems. Engineers are naturally driven by results asa characteristic of their mind added by the formation. They work using scientific discoveries topropose applications that meet the needs. It is expected that engineers are