, 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
higher numbers of disclosed disabilities, there is some indication that reporting is still not where it needs to be. The 2016 Healthy Minds Study suggested that up to 35% of students enrolled in higher education institutions met the criteria for at least one mental disorder in the prior 12 months [2]. This statistic indicates that the rate of reporting dramatically underrepresents the number of students in need of accommodation and demonstrates the importance of universal design in all classrooms to truly serve all students. Universal Design Principles (UDP) were introduced in 1997 in order to make space more usable for people with diverse abilities by a group of architects, product designers, engineers and environmental design researchers to
explores and clarifies the nature of the engineer’sconstrained but irreducible freedom in his book, The Existential Pleasures of Engineering. LouisBucciarelli at MIT has been a leading proponent of the philosophy of engineering. In his book,Designing Engineers, he properly identifies design as the core agenda of engineering practicewithin the context of a socially defined enterprise. In Philosophy of Engineering, Bucciarelli,sees the concerns of philosophers as relevant to engineering thought and practice, in negotiating3 Worth repeating here is that neither the INCOSE Handbook nor the recent Mind Set essay make any reference to either thermodynamics or anautonomous engineering agenda
thebenefit of society. It also encourages them to select more rigorous courses as they prepare forcollege. We contend that high school students who complete courses in engineering have a betterunderstanding of, and a more solid foundation for, the mental processes and perspectives neededto achieve success in an increasingly technologically-driven world.The Creative Engineering CourseWith the benefits of teaching engineering at the high school level in mind, the IntegratedTeaching and Learning (ITL) Program at the University of Colorado at Boulder’s College ofEngineering and Applied Science partnered with the Denver School of Science and Technology
, teamwork, student ethics, and oral andwritten communication skills. The computer application aspect of the course is designed with thestrength of current students in mind. Students are introduced to basic computer applications inengineering and communications. The second part of the course is designed to instill theprinciples of teamwork and teach students the basics of group interactions. Students majoring invarious engineering disciplines are organized in groups to work together on various projects thatinclude engineering design problems, ethics, and project management. Each project generates areport that has a research portion followed by analysis, solution, and conclusion. The projectsconclude with each team making a public presentation in
Laboratory.6 Pearson, G., & Young, T. (Eds)., 2002. Technically speaking: Why all Americans need to know moreabout technology. Washington, D.C.: National Academy Press.7 Richards, L., 2007. Getting the word out. Prism , 16 (no.5). American Society for Engineering Education.8 DeVore, P. W. (1992). Technological literacy and social purpose. Theory into Practice 31(1), 59-63.9 Fogarty, R. (1991). The mindful school: How to integrate the curricula. Palatine, IL: IR I Skylight. ISBN0- 932935-31-1.10 Zuga, K., 1992. Social reconstruction curriculum and technology education. Journal of TechnologyEducation 3(2), 53-63.11 Wiggins, G., and McTighe, J., 1998. Understanding by Design. Alexandria, VA: Association forSupervision and Curriculum
perceptions of the two programs, as well aslistening to industry representatives speak about the job opportunities available after graduation.Keep in mind that a student does not have to actually declare the E or ET path that they want topursue until they begin their junior year of courses. Page 24.1296.5 Fig. 2 Engineering Student Enrollment as a Function of Class, Aug. 2013 180 2010-11 2011-12 2012-13 2013-14 157
allow for effective learning, suchas the measurement of very small voltages/currents, or observations of high frequency signalsusing a high-speed scope, and so forth. With this in mind, the mobile studio approach is truly seenas an additional tool to be utilized where possible, but is not a complete replacement fortraditional laboratory equipment for all courses. We envision that aside from these very fewexceptions, nearly all courses can be designed to utilize the mobile studio lab instrumentationeffectively.IV Mobile Studio LogisticsThis section discusses the key considerations that informed the hardware selection process andguided the decision process for the practical logistics of implementing a mobile studio basedelectrical engineering
development [12]. Whilethese two research fields discuss the cognitive underpinnings that support transfer, neither takesup the systems or mechanisms through which mastery of this knowledge is transferred andadapted between disciplines. Liyange et al look to research in business administration andorganizational behaviour to develop a knowledge transfer model for the engineering context.While specifically interested in the methods that engineering firms may use to cultivateknowledge transfer between employees, their work provides a useful review of knowledge-transfer models in business [13]. They borrow from Aliva and Leidner to differentiate betweendifferent perspectives of knowledge, as a state of mind, object, process, condition of access
curricular adjustment. In a broader scope,the project would review the actual status and the kind of discussions and issues addressed inrelation to curricular analysis in the rest of the World, particularly in the USA and Europe1.The development of this Project, which is still active, has generated a very rich mind openingprocess in both academic institutions. A key aspect of this process has been the visit ofspecialists from different prestigious universities in the USA. They have offered seminaries andworkshops about issues like curricular design based on competences and skills, course programconstruction, methodologies for teaching – learning, new approaches for the teaching of physics,the relevance of Design in the training of an engineer
AC 2008-1177: PUTTING THE ENGINE BACK IN THE ENGINEERFred Cady, (Retired) Montana State University Fredrick Cady is a Professor Emeritus in the Electrical and Computer Engineering Department, Montana State University. He has been involved with ABET accreditation for the Electrical Engineering and Computer Engineering programs at Montana State University for 20 years. He is interested in improving the quality of engineering education and has authored four microcomputer textbooks. He has a Ph. D. in electrical engineering from the University of Canterbury, NZ and is a senior member of IEEE.John McLellan, Freescale Semiconductor John McLellan is a applications engineer for the University
Paper ID #26707Engineering Identity across the Mechanical Engineering MajorDr. Kathleen E. Cook, Seattle University Kathleen Cook, Ph.D. is an Associate Professor in and Chair of the Psychology Department at Seattle University. Dr. Cook received her doctorate in Social and Personality Psychology from the University of Washington, with a minor in quantitative methods and emphases in cognitive and educational psychology. Her research has included classroom learning, person perception, identity, and health perceptions.Dr. Yen-Lin Han, Seattle University Yen-Lin Han is an Assistant Professor in the department of Mechanical
that it is their belief that any engineering topic could be made to meet the secondcriteria, however, the use of this criteria keeps relevance on the mind of the instructorwhen writing lectures and course materials. Below is a listing of some of the main coursetopics, as well as information on how they were presented. 1. Biologically Inspired Products: Students are introduced to products, buildings, and materials which are consciously based on biological systems. This unit is also used to stress the difference between being inspired by nature and in superficially copying the appearance of a natural organism. Janine M Benyus’ Biomimicry5 is recommended as supplemental reading as it gives examples of commercially viable biologically
definition, analysis and configuration management · Human Systems Integration · Life cycle engineering and life cycle cost analysis Page 15.775.4 Figure 1. Systems Engineering Process [2] To graduate competent electrical engineers with systems engineering skill sets, the educational (BSEE) programs should emphasize “systems thinking” throughout the curriculum. “Systems thinking” is the ability to always keep the ultimate objectives in mind throughout the design process and make the decisions to stay on track. This must occur throughout the requirements, the design, the production and deployment phases
Session 1357 Engineering Problem Solving in Industrial Engineering Curriculum Reform Sigurdur Olafsson, Veronica Dark, John Jackman, Frank Peters, and Sarah Ryan Iowa State UniversityAbstractProblem solving is a major focus of the engineering profession, and upon graduation newengineers are faced with increasingly complex problems. Yet, existing engineering educationpractices often fall short in preparing students to tackle complex engineering problems that maybe ambiguous, open-ended and ill-structured. In this paper, we describe a newly developedlearning
societywhere those projects exist. Related, Rowena “wanted to understand a little bit more about theway they [engineers] think.” By understanding how they think, she explained, we can bettercomprehend, as Marley also said, “how to use engineering to solve social problems.” When asked about how the course met their expectations, the students responded with agreat deal of focus on how Citizen Engineering helped expand notions of engineering to includenon-engineers’ stakes in engineering projects. Marley was clear about this: “Learning aboutengineering, citizen engineering, will allow me to go into general engineering subjects with moreof a mind toward citizens, not engineers and non experts. More of a willingness to cooperatewith them directly on
Session 2325 Linking Engineering Service Courses with Engineering Design P. David Fisher, James S. Fairweather, Diane T. Rover, Lisa A. Haston Michigan State UniversityAbstractThis paper focuses on the important role engineering service courses could play in a student’smajor engineering design experience. It explores opportunities for students to apply knowledgeacquired and skills learned in these courses to their multidisciplinary, engineering designexperiences. But transforming these courses and linking them more formally to engineeringdesign may require that engineering faculty and administrators rethink
newopportunities for expansion.Recent research findings on the best practices for industry-university collaboration8 seem tovalidate our relational model and points out the need to enhance our model by examining the setof best practices against our model basic premises.There are some questions in our minds about the sustainability of the model if we keep growingat the rate we have been growing over the last 3 years; can we keep sending our students to asemester long (summer) practice when the numbers are 40 or more per semester? Should we capour enrollment if our working principles are threatened? How many companies and industries arereally willing to commit to a sizeable investment to get engineering students into a practice basedcurriculum? Should there
knowledge/skills in pursuit ofaddressing a problem/need is a fundamentally ethical act. It is ethics first and engineeringsecond. Ethics is not an afterthought, but neither is engineering. Ethics is found in the richexperiences of relating to ourselves and to others. In this framing, ethics is about living and, inliving, responding with care and an inquiring mind to the exigencies born from relationality.Engineering is one mode of responding to life lived in a world of interaction. Through a livedethics, we (re)fashion ourselves, others, and the world in which we dwell. Given that much of myprofessional focus is directed at education, this leads me to a difficult question: if one desired todo so, how should this be taught to budding engineers
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