, Dr. Barry spent 10-years as a senior geotechnical engineer and project manager on projects throughout the United States. He is a licensed professional engineer in multiple states. Dr. Barry’s areas of research include assessment of professional ethics, teaching and learning in engineering education, and learning through historical engineering accomplishments. He has authored and co-authored a significant number of journal articles and book chapters on these topics.Major Daniel J. Fox, U.S. Military Academy MAJ Dan Fox is an Instructor in the Department of Civil & Mechanical Engineering at the United States Military Academy, West Point, New York. He holds a Bachelor of Science degree from the United States
psychological interiorisation and dysfunctioningpractical implementation”.While it is self-evident that among any random group of individuals there will be differentlevels of understanding of engineering issues the literature hardly considers this to beproblematic. There is one report of an examination that illustrates this point which is given infull in the appendix. Part of a trial in examination design, it tested for comprehension,engineering analysis, project design, and engineering reasoning. A difference in theknowledge required to comprehend and analyse the newspaper article that was provided iseasily discerned in the questions asked.Most of the commentaries however, do not focus on the fundamental purposes of engineeringor technological
Manager Design; Produc- tion Engineer; Quality Control Engineer). On top of his experience as a researcher/academician, he has been actively involved in research and accreditation work related to engineering education. His technical research areas are Applied materials and manufacturing; Applied mechanics and design; Reliability engi- neering; and Engineering education. As part of the Applied Mechanics and Advanced Materials Research group (AM2R) at SQU, he has been involved in different applied research funded projects in excess of 4 million dollars. He has over 200 research/technical publications to his credit (research monographs/books, edited book volumes, a 5-volume encyclopedia, book chapters, refereed journal
Paper ID #29876Understanding better young people’s views on technology in FinlandDr. Johanna Kristiina Naukkarinen, Lappeenranta-Lahti University of Technology LUT Johanna Naukkarinen received her M.Sc. degree in chemical engineering from Helsinki University of Technology in 2001, her D.Sc. (Tech) degree in knowledge management from Tampere University of Technology in 2015, and her professional teacher qualification from Tampere University of Applied sci- ences in 2013. She is currently working as a post-doctoral researcher and project manager with the School of Energy Systems at Lappeenranta-Lahti University of Technology
Physics II Classical Physics II Course Goals • Mathematical and • Conceptual understanding • Technological and technical competency of electromagnetics and engineering literacy 20th Century • Show the human developments side of engineering and how it relates to design Methods of • Regularly Scheduled • Final Project • Final Project Evaluation
Paper ID #12997Understanding the NSF Transforming Undergraduate Engineering Educa-tion Report – Why are Industry and Academic Pathways toward KnowledgeDevelopment at Odds?Prof. Charles Pezeshki, Washington State University Charles (Chuck) Pezeshki is the Director of the Industrial Design Clinic in the School of MME at Wash- ington State University. The Industrial Design Clinic is the primary capstone vehicle for the School and focuses on industrially sponsored projects with hard deliverables that students must complete for gradua- tion. His research area is in knowledge construction as a function of social/relational
. Received several awards for the actuation in education including INTERTECH, ICECE and IGIP. Director of a project in Digital preservation of heritage and member of projects in Automation. Member of a program for enhancement of computer literacy at the University of Buenos AiresProf. Maria Feldgen, University of Buenos Aires Maria Feldgen is an associate professor and researcher in computer science at the University of Buenos Aires (School of Engineering). Her research interests include Engineering Education, Distributed Sys- tems, and Ubiquitous Computing. Her main research interests are around classroom assessment tech- niques for design capstone courses, heritage digital libraries and sensor networks. She was the
assess learning gains1-4. Design requires synthesis and ischaracteristic of higher levels of cognitive engagement. It is possible to carry out some types ofengineering design activities that do not require extensive technical background knowledge. Inaddition a variety of hands-on design construction activities can be done with limited resourcesusing simple, low cost materials. Page 22.138.2 1Using design projects as a non-quantitative means of assessment is effective only for a limitednumber of technological literacy outcomes. These activities using simple materials are effectiveat developing an
change, and to denote measures of technical competence. Thesteady rise starting around 1980 coincides with the time that personal computers became bothpopular and affordable; for example the IBM PC was introduced in 1981. The accessibilityof technology to all age groups has only grown since then (Mawson, 2007). The 1980’s wasalso the decade technological literacy began to come under increasing consideration in highereducation by policy makers (The Committee to Idenfity Critical Issues in Federal Support forScience and Technology, 1986), foundations such as Sloan (Florman, 1987), and the AAASthrough Project 2061 (Rutherford, 1989).The 1990’s saw increasing interest in technological literacy at the policy level (The Board forEngineering Education
in a style that should be interesting and accessible tostudents and is not overly long. However, it is somewhat dated. The paper could form the basisfor in-class discussion or a written reflection if an instructor generated appropriate prompts.There are also more detailed case studies related to privacy that would be good vehicles forinstruction, including Google Street View [40, 41] and “optimizing schools” [42]. These cases donot explicitly discuss a human rights perspective, so this framing would need to be added by theinstructor.Right to Property – Article 17Article 17 relates to the right to own and not “be arbitrarily deprived of [ ] property” [1]. Thisrelates to civil engineering and the use of eminent domain for projects, which is of
course5.Dyer and Schmalzel13 also reported great difficulty in finding textbooks that were structuredaround a “just-in-time” approach that would be suitable for project work.The course to be described below may be seen as a development of Heywood’s early work. Itis appreciated that in the US other definitions of integration and interdisciplinarity are usedand a substantial discussion of these will be found in Heywood (2005)14 (see also Fogarty,199315). However, there are two points that need to be made.First, the idea of inter-disciplinary study in the British Isles is mostly associated with coursesin which students study two subjects throughout the period of study to the major (honours)level. With rare exceptions it seems that academics do not
electric and magnetic fields in space [4-7].Many different instruction techniques have been implemented to address the connectivity gapbetween the student’s learning approach and required conceptual maturity for electromagnetismcourses, such as team active-learning [1,8,9], technology-based learning [10,11], groupdiscussions, experiential learning [6], and project based learning [12-14]. Each of thesetechniques brings about a thematic change in the way students interact with one another andexperience the course material. However, in many typical classes students aren’t necessarilyexploring, questioning, and learning within the classroom setting [15,16]. These observationshave led us to reframe our electromagnetism instruction to be active learning
” bill to congress as well as administers many of the environmental and energy laws. Organizations, special interests groups, and even entire industries are spending a large amount of money on lobbyists in order to influence politicians to support particular legislation. The nuclear industry, which spent some $71,405,955 lobbying Capitol Hill in 2004, would get $7.37 billion in tax breaks and projects, including federal funds to construct a $1 billion nuclear plant in Idaho. After a bill is passed, the EPA is then authorized to implement the law by creating regulations that apply to individual, business, state or local government. A study by the nonpartisan General Accounting Office last year found that Vice President Dick Vice President
lectures providedstudents the opportunity to learn about current research and projects being conducted inGermany. In addition, the tours included hands-on learning, where students not only receiveddemonstrations of machinery and robots, but also were allowed to test some of the equipment inthe laboratories. The demonstrations enriched learning for the engineering students because theywere not only able to hear and see technology, but they were able to experience it, too. All toooften, students recognize technology, but don’t quite understand and appreciate it. The E3program took students out of the classroom and into the environment where technology is beingused, researched and developed. This created an environment rich for learning and
facilitates active learning (Princeand Felder, 2006), problem solving (Jonassen, 2002) and project-based learning (Hadim andEsche, 2002), which are encouraged as ways of exciting students. Also, besides facilitating understanding ET literature, this framework facilitatescomprehending ET datasets that involve diverse data formats (or modes) including drawings,spreadsheets, documents, graph sheets, pie charts, and various graphic as well as video formats.This study aims at demonstrating a novel tool of multi-dimensional multi-modal visual analyticframework to visualize the inter-related aspects of ET literature. This is accomplished by Page
design [3], it is difficult to realizewithout adding another year to the existing, rigid course load requirements. Implementing theStrand Model and Freshman Seminars at The Citadel represents an effort to acknowledgedifferent interests.The entire General Education curriculum begins with a Freshman Seminar and correspondingFreshman Writing course. During the student’s senior year, the General Education curriculumculminates in a Capstone project that should be in the student’s major. Between the FreshmanSeminar and Writing Courses, all six outcomes are assessed. Again in the senior year capstone,all six outcomes are assessed. Throughout the General Education curriculum, specific outcomesare assessed in certain courses for depth and reinforcement
approach is to demand more engagement from the students [2]. This method is shown tobe effective as seen in prior literature [2-6]. However, it is observed that while students are morecollaborative in such dynamic learning environments, they still tend to align themselves to theviews of their team, and eventually, the direction of the course is defined by the instructor. So,while the active learning approach does bring the team along in the process of learning, there aresome aspects that still need to be addressed. One such aspect is the students’ engagement in termsof communicating their doubts and confusions. Typically, students show their original work viaassignments, quizzes, projects, and tests. However, the timeline for such activities is
represented by the heights. All four “buildings” are placed on a two-by-four,which is mounted on a set of wheels. Figure 2. Predict: Students are asked to predict the outcome.Students are asked to predict which buildings will sway the most in an “earthquake”, where theearthquake is simulated by the instructor by oscillating the two-by-four base on wheels. Theprediction is done by online polling, where students can observe the class results. In the twoyears (2015 and 2016) that this interactive demonstration was done, the results were similar tothat shown in Figure3. Figure 3. Predict: Students’ online prediction of the demonstration. (2015 poll shown).With Figure 3 projecting on the screen, the instructor then shakes the base with
your RET experience successful in each of the following areas: It was responsive to your professional development needs It was appropriate to your knowledge, skills and interests It provided the opportunities to engage in inquiry/research activities that you will be able to adapt for classroom use The research assignments were clearly defined The work was enjoyable and stimulating The scope of the project was appropriate for the time you were on siteGroup 2: Personal Impact of the RET ProgramTo what extent do you agree or disagree with each of the following statements concerning theimpact of the experience on you personally? It increased my confidence in myself as a teacher It elevated
Paper ID #22151On Epistemic Diversity of Engineering and Engineering EducationMr. Soheil Fatehiboroujeni, University of California, Merced Soheil FatehiBoroujeni is currently a Ph.D. candidate in Mechanical Engineering at the University of Cal- ifornia, Merced. His research interests are in nonlinear mechanics of biological filaments and uncertainty quantification. He has been also actively involved with education research and is currently working on a project on the philosophy of engineering and its pedagogical implications at the Center for Engaged Teaching and Learning (CETL) in UC Merced
new gadgets andapplications as these technologies continue to evolve. The course has been offered three times todifferent groups of adults, and has proven to be an effective and popular outreach effort forMichigan State University, with “sold out” classes and requests for additional offerings. Thecurriculum described here, and the discussion of lessons learned, should prove valuable forinstitutions and instructors desiring to adapt the materials for their own community outreachefforts.AcknowledgementsFunding and administrative support for the courses described here were provided by theMichigan State University Alumni Association and by the MSU Women’s Resource Center.References1. Pew Research Center’s Internet & American Life Project
, or advertisedto indicate its potential appeal or value to non-engineering majors?" Would someone in yourmajor be attracted to a minor? What types of majors would be attracted to this? What are someof the potential benefits to a student who chooses a minor? Can you see any drawbacks to aminor from engineering? Would the minor be more attractive if one of the electives could besatisfied by a practical experience such as a summer internship with an engineering company, Page 25.939.10working on an Engineers Without Borders project, or working on a senior design team withengineering students? 9It was
of a larger program at Florida Atlantic University that targetsmultiple topics and concepts in engineering, computer science, physics, and mathematics. The method was employed over the course of a semester for a class titled “Control Systems1”. A small scale assessment was applied to gauge the students’ receptiveness to the techniques.Although the project is in the preliminary stages, the feedback has been positive. Currently,further efforts are being made to assess students throughout the course of the semester,comparing their overall success with their opinion of the techniques highlighted in the project. Page 24.172.2 1. Introduction
choose not to undertakean engineering project in that time or place).While we might count it a victory for some of the non-canonical canons to move, in time, intothe accepted professional society codes, that is the not the primary purpose of creating thisalternative stream of ideals in engineering ethics. Rather we hope to illuminate the politicalnature of the process, the ways insider-outsider dynamics play out in professional societies, andthe contestation of what counts and does not count as engineering.IntroductionWhat are the processes by which professional societies develop Codes of Ethics, and how doesinstitutional power shape both processes and outcomes? Who counts as a moral agent? Who issubject to the code? Does the existence of a code
Literacy to the Philosophy of Technology and Technological Citizenship: A Progress ReportI. IntroductionIn the last paper I presented in this division of ASEE (Neeley, 2006), I complained that it wasdistressing to see a group with such an ambitious and worthwhile project saddled with a namethat provided so little insight into its character and potential. The opening sections of TechnicallySpeaking: Why All Americans Need to Know More about Technology (2002), a joint publicationof the National Research Council and the National Academy of Engineering, make it clear thatthe initiative called “technological literacy” is concerned with a sophisticated and heterogeneouscombination of “knowledge, ways of thinking, and capabilities” and
Studies [6].The 1957 Circular did not prescribe what a liberal curriculum should be but suggested fiveways in which the curriculum could be liberalised. These were(1) The inclusion of additional subjects.(2) Broadening the treatment of technical and scientific subjects.(3) Increase use of the college library, of seminars, of discussion groups, directed studyperiods, and projects; and in general the fostering of the tutorial relationship betweenteaching staff on the lines of that used in universities.(4) The encouragement of corporate life in colleges, and the development of extra-curricularactivities.(5) The establishment of contacts with institutions abroad.The Circular stated that “the mere addition of extra subjects will not by itself
appreciation of the values we bring to that understanding.[...] Its contribution to liberal education would be to give an insight into the way of thinking of engineers in order to enable judgments to be made about the value of projects and the risks associated with them. 2This definition is problematic, though, in that it fails to produce an actual definition. Instead, itprovides researchers with some ideas as to how to identify and assess engineering literacy,explicating what the research “requires that we understand.”Engineering literacy works to describe an informed citizenry, wherein the person functionseffectively in a society that values engineering, as separate from technology. The NationalAssessment
envisages adifferent curriculum structure that can bring together the two literacies [14]. At this time itlies outside the plausibility structure.An alternative curriculum structure.In the middle nineteen seventies the Minister for Education in Ireland approved a project thatwould allow a few schools to develop a transition year between the junior cycle of post-primary education when students take a public examination called the Junior Certificate (15+years) and the first year of the two year programme for the Leaving Certificate (17+ years).The idea was that students should be freed from their studies for examinations and that theyshould undertake studies that would help their personal and career development. They wouldcontinue with some
25.1268.6References 1. Oosthoek J, Teaching science in a humanities context , Final project report , School of Historical Studies, HaSS Faculty Teaching Fellowship , Newcastle University, 2007 2. Critical Thinking Rubric from Assessing Outcomes and Improving Achievement: Tips and tools for Using Rubrics, edited by Terrel L. Rhodes. Copyright 2010 by the Association of American Colleges and Universities.” last accessed 3/13/2012, http://www.aacu.org/value/rubrics/pdf/CriticalThinking.pdf Page 25.1268.7
degreeprograms seek to develop. Much of our conversation in engineering education is about how toget our students to develop the expertise to manage works in this domain through projects,design, etc. These types of problems are increasingly amenable to AI solutions.Working in the complex domain relies on different mental rules than the simple and complexdomains. The reason for this is that problems or systems which can be characterized as complexexhibit behaviors not shared by simple and complicated system. While not an exhaustive list,complex systems exhibit the following characteristics:• Emergence: Out of the interactions between the individual elements in the systems behavior emerges at the level of the system as a whole. Such higher order