Estudios Superiores de Monterrey(The Monterrey Institute of Technology and Higher Studies) has recently implemented abiomedical engineering degree program. Their classes have been acknowledged as“substantially equivalent” by ABET, making this an ideal starting point for an exchangeprogram (http://www.abet.org/subequi.shtml). An extremely exciting recentdevelopment is the initiation of accreditation programs for international universities suchas the ITESM [18]. As programs at these institutions become accredited, facilitatingthese types of exchanges will only get easier. Page 14.431.34. DiscussionIn an increasingly globalized industry, an understanding
which students feel they are part of the discussion and understand that their inputmatters.We help students see that the skills developed in an active learning environment are remarkablysimilar to the life skills that many of them hope to develop during their college careers: initiativeand self directed growth, critical thinking and creative problem solving, communication,leadership and collaboration skills, information and technology literacy, and global awareness.Importantly, we put biology into a meaningful context for our engineering students. Studentsbecome more engaged when they can see the possible applications of the knowledge they areobtaining.Lesson 4: Change requires trust and good leadership. It is important to build a
Paper ID #19767Making Meaning through Art-Integrated EngineeringDr. Kerry Dixon, Ohio State University Kerry Dixon is a specialist in interdisciplinary education, with particular focus on integrating visual art into science, technology, engineering and math. Formerly a member of the curatorial staff at the San Francisco Museum of Modern Art, Kerry has also directed two education nonprofit organizations. As director of those organizations, she partnered with The Ohio State University on the creation of a national model for preparing future secondary teachers with a specialization in urban education. In that role, she
STEMexperts from the broader community, including the School of Engineering and local engineering,health, and technology organizations, to mentor the students. Additionally, the team proposedSTEM Showcases for the communities in which the schools were situated. At these STEMShowcases, students could be the experts, showing off what they had accomplished, andcommunity members could learn and experience STEM through hands-on activities together.Schools were selected based on their location in high-need neighborhoods with active CDCs.JHU, through either the Center for Engineering Outreach or the School of Education, hadrelationships with some schools already, but not with the other schools. Many, but not all, of theschools were “community schools” with
. Page 12.1152.1© American Society for Engineering Education, 2007 Perspective of a Transfer Engineering ProgramAbstractThe transfer engineering program at Albany State University conducted in collaboration withGeorgia Institute of Technology has undergone a number of structural changes in the last fiveyears leading to a more comprehensive educational experience for the students that have beenreflected in higher enrollment figure and improved matriculation rate. Curriculum enhancementwith introduction of five new engineering courses and revamping the materials of others toensure smooth transition to Georgia Tech, addition of laboratory component to the engineeringcourses, conducting workshops for high school students and
Paper ID #9437A Platform for Computer Engineering EducationDr. Sohum A Sohoni, Arizona State University, Polytechnic campus Dr. Sohoni is an Assistant Professor in Engineering and Computing Systems at Arizona State University’s College of Technology and Innovation. Prior to joining ASU, he was an Assistant Professor at Oklahoma State University. His research interests are broadly in the areas of computer architecture and perfor- mance analysis, and in engineering and computing education. He has published in ACM SIGMETRICS, IEEE Transactions on Computers, the International Journal of Engineering Education, and Advances in
,but rarely are patent or trademark searches required for projects. This is a disservice toengineering students.Of all the academic disciplines, engineering may encompass most of the patentable technologicalbreakthroughs, yet some engineering students are never exposed to IP education. If taught early,starting in the freshman year, and often, throughout the undergraduate education, IP educationwill be ingrained into the student’s creative thought process. It will also give the undergraduateengineering student other options upon graduation, perhaps to study patent law or technologytransfer.Incorporating IP into an undergraduate engineering curriculum need not replace any ABET(Accreditation Board for Engineering and Technology, Inc.) or any
, workshops, and playingspaces. It demands strenuous efforts and experts to intercede with stories, admonitions,or principles when students fail, as they must, if they are to learn. Most of the learningthat results in the expertise of the practicing scientist, engineer, or poet is accomplishedthrough hands and minds on a task. Just think of the contrast between the activities ofapprentices in a workshop and the passivity of pupils in a lecture hall.If we refocus our efforts on learning, professors can exploit information technology toprovide data, scholarly references, and simulated problems for cognitive workshops. Inthose workspaces, student investigators will work side by side with faculty. Togetherthey will learn to create, evaluate, improve, and
: TheMIT Press, 2002.[3] Seymour, E. and N.M. Hewitt, Talking About Leaving: Why Undergraduates Leave the Sciences. Oxford:Westview Press, 1997.[4] Leydens, J. A., B. M. Moskal, and M. J. Pavelich, “Qualitative Methods Used in the Assessment of EngineeringEducation”, J. Engr. Educ., Vol. 93 , No. 1, 2004, pp. 65-72.[5] Selby, C.C., Review and Summary of Part II Sessions, in Women in Science an Engineering: Choices forSuccess, C.C. Selby, Editor., The New York Academy of Sciences: New York., 1999, pp. 127-132.[6] Rosser, S.V., Women, Science, and Society: The Crucial Union., New York: Teachers College Press, 2000.[7] Thom, M., Balancing The Equation: Where are Women & Girls in Science, Engineering & Technology?, NewYork: National Council
from literature. The set of relevant programs isselected and an efficient set identified. The efficient and less efficient programs are compared. Page 24.465.2Efficiency in higher educationThe demand for higher education is increasing significantly [1]. The world today is facingchallenges that motivate the growth of technology in every aspect of life [2]. From 2000 to2010, the number of full-time undergraduates increased by 45% and the number part timeundergraduates increased by 27%.Although the number of engineering BS degrees increased by 5% in 2012 and MS degreesincreased by 6%, there are still unmet needs. Each year over 500,000 new
revolution, however, most of the problems to be solved by work-ing engineers will be novel problems, often created by new technology or the combination ofcross-disciplines. Certainly professors created knowledge previously in their minds, yet theytypically do not transmit to students the insights and judgments used in producing the knowl-edge. Providing students (especially Millennials) the reasons why selected information was in-cluded/excluded in course content is a critical part of the knowledging process. Useful insightson how experts (professors) differ from novices (students) enhance understanding.5Knowledging is to teach the student the process of creating by judgment the knowledge to solvethe given problem. Yet, once this knowledge, which is
2213Engineering Experiments Utilizing an Automated Breadmaker By Robert P. Hesketh, C. Stewart Slater, and Carol Rea Flynn, Chemical Engineering, Rowan University, Glassboro NJ 08028-1701 Prepared for 2001 ASEE Annual Conference Session 2213, June 26, 2001Breadmaking is a technology with a long history, starting with the Egyptians bakingloaves of bread over 6000 years ago. Since then, the process of bread making hasbecome fully automated through the use of bulk transportation of ingredients, largemechanical mixers, conveyors, environmentally controlled proofing chambers
Session 1656 Leonardo as Artist, Scientist, Engineer Diana Dabby Franklin W. Olin College of EngineeringAbstractStudents find Leonardo’s complex persona and the richness of his artistic and scientific inquiryvital for understanding Leonardo, ingegnere (the engineer). Taking his life and work as itsdomain, Leonardo as Artist, Scientist, Engineer develops the following skills in its range:discovery, discussion, identifying a monograph’s major points, building a scaffold of knowledge,individual research, and creative conveyance of information. It further addresses the time-honored
, been running aspring seminar class aimed exclusively at freshmen with the goal of introducing the broad sweepof ocean engineering disciplines in a way that is both engaging and tractable to the students. Thecore activity of this class is the construction and testing of a simple remotely-operated vehicle(ROV) made out of PVC pipe, toy motors, and other simple components. It is through thediscussion and analysis of this vehicle and its various parts that the many facets of OceanEngineering are introduced to the students. This paper outlines the course and our experiences inteaching it. The paper also describes some of the simple technologies have been developed toenable students to engineer underwater both easily and
founding Co-Director of the Integrated Teaching and Learning Program, and Associate Dean for Inclusive Excellence at the University of Colorado at Boulder’s College of Engi- neering and Applied Science. She received her Ph.D. in environmental health physics and toxicology from Purdue University and held leadership positions in the energy and software industries for 13 years. She founded and leads CU’s extensive K-12 Engineering Initiative and spearheaded the Engineering GoldShirt Program. In 2004 she founded the ASEE K-12 Division and in 2008 received NAE’s Gordon Prize for Innovation in Engineering and Technology Education
resources across educational institutions. At the federal level, Congress seeks to provide guidanceto state legislatures through incentives and related policies offered through the U.S. Department of Education(DoED). Furthermore, state and federal governments have a significant impact on public and private educationthrough directed program development and technology research grants. Some recent examples of federal investmentinclude initiatives in science, technology, engineering, and mathematics (STEM) programs, info/nano/biotechnology research, and more recently advanced manufacturing. Once again, government agents are explicitly orimplicitly performing economic calculus to justify budget allocations.At the global level, ethicists suggest the need
Paper ID #142382.00GoKart - Using Electric Go-Karts to Teach Introductory Design and Man-ufacturing at MITDr. Dawn Wendell, Massachusetts Institute of Technology Dr. Dawn Wendell is an engineer whose past projects range from BattleBots robots to medical devices, for which she holds several patents. She received four degrees from MIT including a PhD in Mechanical Engineering. She worked as a fluid mechanics researcher in Paris, France before returning to MIT as Assistant Director of Admissions. Currently Dr. Wendell works as a Senior Lecturer in MIT’s Department of Mechanical Engineering teaching design, manufacturing, and
, and diversity and equity issues in mathematics.Durga Suresh-Menon, Wentworth Institute of Technology Dean, School of Computing & Data Science ©American Society for Engineering Education, 2024 Student Recruitment and RetentionImprovements through Success in First Year Mathematics: A Multi-faceted Approach Deirdre Donovan and Durga Suresh-Menon Wentworth Institute of Technology • Original calculus sequence andGoals of approachPresentation • New multi-faceted approach ○Discuss each aspect • Call to Action and future plans 2 Traditional
. Engineers, whetherstudents or professionals, need to remember that problem solving involves understanding theentire process; a black box solver should never be trusted! It is shameful that students andgraduates alike pick up a calculator to work simple sums, products, and functions that theyshould be exercising their minds to determine. Calculators, spreadsheet templates, computerprograms, and other technological devices save a great deal of time. They aren’t bad -- they justshouldn’t be used blindly. Users need to understand the basis and limitations of any technologybefore relying on it.Within any STEM field, a skill that requires careful development is that of effectivelycommunicating solutions. In high school math and science courses, the work
definition of the educational outcomesexpected at the end of a baccalaureate engineering degree. In the case of the design componentof curricula, these outcomes define what the student has learned and is capable of doing withrespect to design. The set of outcomes which apply to all of the engineering disciplines becomecriteria for the curricula. Achievement of these outcomes requires assessment at critical pointsin the educational process if growth in student design ability is to be developed throughout thecurriculum. This perspective is reflected in proposed changes in accreditation requirements set bythe Accreditation Board for Engineering and Technology (ABET, 1995). These criteria placeresponsibility on the institution to define program
1 Session 3255 Master of Nuclear Engineering Traineeship Program e Paul J. Turinsky, Kuruvilla Verghese North Carolina State UniversityINTRODUCTION One of the recommendations that appears often from recent national discussions on reshaping graduateeducation in science and technologyl’2 is to provide joint industry-university projects as part of the students’preparation. Many
anti-technology and anti-government attitude in the USA. Thegoals of the IDES division were to help recruit and retain students who had the ability to doengineering but also had other compelling interests. To retain maximum flexibility the decisionwas made to not seek ABET accreditation and to require a minimum of 30 credits ofengineering. Students were only allowed to follow plans of study that could not be done in oneof the standard disciplines offered at the university.By the early 21st century it was evident that IDES was serving two groups of students. Onegroup of students wanted an engineering education but did not plan to pursue an engineeringcareer. For example, these students were in preprofessional programs such as
standard that covers mainengineering skills in sciences, mathematics and design. Students are prepared through arigorous curriculum. However, Universities fail to fully prepare students for aspects of theirlives beyond the academic scope. While the Accreditation Board of Engineering and Technology(ABET) requires student training in ethics, lifelong learning, communication, and working inmultidisciplinary teams, students remain insufficiently prepared with skills that help overcomemany challenges they face after leaving University.University of Illinois at Chicago (UIC) is a public research university registering greater than20,000 students. One of the colleges at the University is the College of Engineering (COE). TheDepartment of Mechanical and
Paper ID #23133Design Thinking in Engineering Course DesignDr. Nicholas D. Fila, Iowa State University Nicholas D. Fila is a postdoctoral research associate in Electrical and Computer Engineering and Industrial Design at Iowa State University. He earned a B.S. in Electrical Engineering and a M.S. in Electrical and Computer Engineering from the University of Illinois at Urbana-Champaign and a Ph.D. in Engineering Education from Purdue University. His current research interests include innovation, empathy, design thinking, instructional design heuristics.Dr. Seda McKIlligan, Iowa State University Dr. McKilligan’s
Paper ID #13630Interactive Mathematica Simulations for Chemical EngineeringDr. John L. Falconer, University of Colorado Boulder Professor of Chemical and Biological EngineeringDr. Garret Nicodemus, University of Colorado Boulder Dr. Nicodemus has taught a variety of different classes in chemical engineering at the University of Colorado Boulder. He has helped build the www.learncheme.com inventory of screencasts, conceptests and simulations in chemical engineering courses. His interests have been in developing active learning methods and incorporating technology in the classroom
Session 3265 Theoretical Issues in Computer Engineering Feodor Vainstein, Mark Rajai Georgia Institute of Technology/ University of MemphisAbstractIn this paper, we present our experience on teaching Theoretical Issues in Computer Engineering.We emphasize the importance of abstract algebra for practical applications. In particular we showthat algebra is the appropriate mathematical tool for many problems in minimization, faulttolerance, digital communications, random number generators etc.IntroductionComputer engineering has been formed as a distinct discipline only recently
Session 3565 Theoretical Issues in Computer Engineering Feodor Vainstein, Mark Rajai Georgia Institute of Technology/ Northern Kentucky UniversityAbstractIn this paper we present our experience on teaching Theoretical Issues in Computer Engineering.We emphasize on the importance of abstract algebra for practical applications. In particular weshow that algebra is the appropriate mathematical tool for many problems in minimization, faulttolerance, digital communications, random number generators etc.IntroductionComputer engineering has been formed as a distinct discipline only
Technology in1979 and theB.S.E.E. from Marquette University in 1978. Professor Krchnavek’s research interests are in the areas ofnanotechnology, MEMS, photonics, electromagnetics, and materials processing. Page 6.832.5 Proceedings of the 2001 American Society for Engineering Education Annual Conference & Exposition Copyright 2001, American Society for Engineering Education
. REFERENCES CITED Astin, A.W, (1996). Engineering outcomes, ASEE Prism, September, 27-30. Bandura, A. (1977). Self-efficacy: Toward a unifying theory of behavioral change. Psychological Review,84(2), 191-215. Bandura, A. (1986). Self-efficacy theory in contemporary psychology. Journal of Social and ClinicalPsychology, 4(3), 359-373. Betz, N.E. (1994). Women in the sciences and engineering. In W.B. Walsh & S.H. Osipow (Eds.) Careercounseling for women. (pp. 237-262). Hillsdale, NJ: Lawrence Erlbaum Associates. Engineering Work Force Commission (1997). Engineering and Technology Degrees. Washington D.C.:American Association of Engineering Societies, Inc. Biographical Information MARY ALETA WHITE
Engineering at the United States Military Academy at West Point. She has served in the United States Army for the last 8 years as an officer and Army Engineer. She is a graduate of West Point (BS in Civil Engineering), Missouri Science & Technology (MS in Engineering Management) and the University of Vermont (MS in Civil & Environmental Engineering).Marc J. Sanborn, United States Military Academy Major Marc Sanborn is an Instructor in the Department of Civil and Mechanical Engineering at the United States Military Academy at West Point. He has served in the United States Army for the last 9 years as an officer and Army Engineer. He is a graduate of West Point (BS in Civil Engineering), Missouri Science &