received the B.Eng. (Electrical) degree from McGill University, in 1986, the M.Eng. degree (Electrical) from Ecole Polytechnique in 1993, and the Ph.D. (Biomedical Engineer- ing) from McGill in 2002, all in Montreal, Canada. His industry experience includes flight simulation from 1986 to 1988, welding automation from 1991 to 1994, neurosurgical navigation (part-time) from 1995-1997, as well as open-source image analysis software from 2008 to 2011. He also did postdoctoral research at the National Institute of Advanced Industrial Science and Technology (AIST) in Tsukuba, Japan from 2001-2005 and at Innovation Center Computer Assisted Surgery (ICCAS) in Leipzig, Ger- many from 2006-2008. He has patents in US and Japan on
Paper ID #35150How the Pandemic Improved My Teaching: Consolidating gains from a timeof lossDr. Byron Newberry, Baylor University Byron Newberry is Professor of Mechanical Engineering at Baylor University. He holds BS and MS degrees in Aerospace Engineering and a PhD in Engineering Mechanics. His technical background is in aerospace materials and structures, and in ultrasonic non-destructive evaluation, but his recent work has been in the areas of engineering ethics, philosophy of engineering and technology, and higher education research. He primarily teaches engineering design, engineering and technology ethics, and
towards and beliefs about mathematics have been theorized to havesignificant impact on learning mathematics2-4. Various scholars have emphasized thatdispositions and beliefs must be studied in order to fully understand the development ofmathematical problem-solving ability5,6. Studies have shown that many K-12 and collegestudents come to believe that mathematics is a rule-driven, linear, solitary, school-only activity,in which problems have one correct solution that should be quickly evident and where trueunderstanding requires special talent 4,7. This counterproductive view can intimidate anddiscourage students and filter them out of science, technology, engineering, and mathematical(STEM) fields2,8,9. Acknowledging this problem, mathematics
identify relevant standards (i.e., technical documents thatprovide best practices and establish uniform procedures across different organizations) andappropriately use these standards to guide their work. The use of standards is so central toengineering that the Accreditation Board for Engineering and Technology (ABET), whichaccredits colleges and universities that offer engineering degrees, requires that an accreditedprogram “incorporates appropriate engineering standards and multiple constraints” into acapstone design experience [1]. Standards are valued in industry, as well. A survey of managersin technical sectors showed that the managers viewed standards as essential to daily operations,regardless of their company’s specific sector [2
Paper ID #35039Incorporating Information Literacy in MET Design Project: Year 2ImplementationDr. Carmen Cioc, The University of Toledo Dr. Carmen Cioc is Associate Professor in the Engineering Technology Department, College of Engineer- ing, at the University of Toledo. She received her Master in Aerospace Engineering from The University Politehnica of Bucharest, her Master in Physics - Professional in Photovoltaics, and her Ph.D. in Engi- neering, in the field of thermal sciences, from The University of Toledo.Dr. Noela A. HaughtonProf. John B. Napp, The University of Toledo John has been the Engineering Librarian at
(EML) into an undergraduate Dynamics course within a mechanical engineering program. A “KEEN” team project was given to the students in which they were asked to pretend that they were members of a startup company that would design, build, test, market, and sell a product with some dynamics content to it. As part of the exercise, the 20 teams worked on idea generation, concept development and identification of required activities, in addition to writing a draft Business Plan. Product ideas varied across different economic sectors including power generation, sports technology, transportation, food and beverage technology, and health care. Grading of the resulting reports incorporated factors such as: (1
findings. The sharing of results with colleaguesto facilitate improvements to the curriculum rarely goes beyond the anecdotal level since manyintangibles are noted and are not measurable. Examples of the attempts to produce useablequantifiable feedback are given along with suggestions for further study.Introduction:As stated this paper deals with the findings of a 5 year study of the capstone design courserequired of all civil engineering technology students at Southern Polytechnic State University(SPSU) and the attempts to use this course as an effective outcomes assessment tool. First,outcomes assessment in the context of the study is described and discussed. Likewise, thecapstone design course is described and the learning outcomes for this
Engineering Educationdemands, the tenure-track faculty member also has personal commitments. In particular, newfaculty with families must find creative solutions to balance work with the needs of the family.This paper presents different perspectives on balancing work and family life from three tenure-track faculty members within Engineering Technology and Industrial Distribution Department atTexas A&M University. While the personal circumstances for each faculty member are unique,they all share the common goal of placing first priority on family life.II. Faculty PerspectivesFaculty #1 - The first faculty member is 36 years old and graduated with a Ph.D. in 1993. Afterworking as a post-doctoral student for three years, he joined a smaller
Rowan Uni-versity. This partnership brings together technology students from a 2-year community collegewith engineering students from a 4-year engineering program.Prototype Design and ConstructionThe key to a successful invention is to determine the potential market as early as possible. In thecase of the Hurricane Roof Vent, the students had to decide whether the product would be:• an "after market" item that could be retrofitted into any existing residential roof, or• a product that could only be installed in new home constructions. Figure 4. Hurricane roof vent test bed. As a first approach, the students chose the former embodiment. Accordingly, for their de-sign to be seriously considered, it would
degree (and hence success) to whichindividual departments at UW evaluated the assessment results varied. To quote a representativefrom one department: “….we got our accreditation renewed, so I guess the methods worked…”In the coming years, it is anticipated that departments/programs at UW will assess theirassessment methods to determine modifications, adjustments and refinements.AcknowledgmentThe financial and moral support of the Department of Mechanical Engineering through theDepartment Chair, William Wilson, and the College of Engineering through Associate DeansMani Soma and Chen Ching Liu, is gratefully acknowledged.Bibliography1. “Criteria for Accrediting Engineering Programs,” Accreditation Board for Engineering and Technology,Washington
823 transportation Electrical, computer 2,132 1,735 397 1,471 Engineering 361 286 75 252 technologies Industrial, operations 655 469 186 396 research Materials, mining 925 637 288 434 Mechanical 1,545 1,248 297 842 Engineering, othera 1,339 1,044 295 617a Includes aerospace, engineering mechanics, nanotechnology, nuclear and other types ofengineeringTable 3 shows the post-graduate plans of recent engineering PhD graduates
State University (PSU) student team consisted of students from theConstruction Management and Construction Engineering Technology degree programs. Twoseniors were selected from the CMCET 691 Senior Projects course to serve as project managers.Additional team members included three students enrolled in CMCET 795-03 Special Topics:Disaster Shelter Design and student volunteers8. Students enrolled in the special topics courseassisted the project managers with design development and contextual research. Several of thestudents involved were Brazilian international exchange students attending Pittsburg StateUniversity. The 2015 (PSU) student team again consisted of two seniors from the senior projectsclass and several students either volunteering or
Session 2426 A Robust and Scalable Distance Laboratory Platform Dr. Tom Eppes, Professor Peter Schuyler Ward School of Technology, University of HartfordAbstract To bring greater attention to the areas of science, engineering and technology, theUniversity of Hartford has merged its colleges of engineering and technology to form theCollege of Engineering, Technology, and Architecture (CETA). It has also launched theconstruction of a new building to house the integrated science, engineering and technologyprograms (ISET). We are actively pursuing initiatives that create a greater level of
-year minimumexpected life of the panels, by the following amount7: Carbon dioxide (49,500 pounds); Nitrousoxides (125 pounds), and Sulfur dioxide (400 pounds). It’s anticipated that 39,030 pounds ofCarbon Dioxide will be saved every year. On average, around 2,615 trees would be required tooffset this early emission8.The purpose of this work is to incorporate renewable energy into engineering technology coursesat Northern Illinois University (NIU) making use of a solar power generation station recentlyacquired through a grant from the Foundation for Environmental Education. The solar systemwill serve as a demonstration platform for educating undergraduate students about contemporaryrenewable energy theory and technology. Key to this educational
. Nadeau is an associate professor of the practice in the Department of Civil and Environmen- tal Engineering at Duke University where he also serves as Director of Undergraduate Studies and ABET Coordinator for the department. He received a B.S. in Civil Engineering from Lehigh University, a S.M. in Civil Engineering from the Massachusetts Institute of Technology, and a Ph.D. in Engineering from the University of California at Berkeley. His teaching and research interests are in the areas of mechanics, structural design, and composite materials. He is a registered Professional Engineer.Prof. David E. Schaad, Duke University Dr. David Schaad has over seventeen years of design and engineering experience as a consulting
success. San Francisco: Jossey-Bass.[25] Tinto, V. (1993). Leaving College: Rethinking the causes and cures of student attrition (2nd ed.). Chicago: University of Chicago Press.[26] United States Department of Labor. (2011, 10 17). Bureau of Labor Statistics. Retrieved from http://www.bls.gov/oco/ocos027.htm[27] Wulf, W., & Fisher, G. (2002). A Makeover for Engineering Education. Issues in Science and Technology, 35. Page 25.480.13
Session 1510 STEPing into the Classroom: An Alternative Capstone Experience Karen C. Davis, Megan L. Perkey, Nicholas B. Harth, Nathan Dees Electrical & Computer Engineering and Computer Science Department University of Cincinnati Cincinnati, OH 45221-0030This paper describes the experiences of three Electrical Engineering seniors who chose analternative to a traditional capstone design project; they applied their undergraduateengineering education in high school math and science classrooms as NSF STEPFellows. Project STEP: Science and Technology Enhancement Program is sponsored bythe
AC 2012-3509: A COLLEGE-INDUSTRY PARTNERSHIP FOR ENTER-PRISE COMPUTINGDr. Larry Burton, North Carolina A&T State University Larry Burton received his B.S., M.S., and Ph.D. in electrical engineering from Duke University. He has 25 years executive international management experience in technology-based businesses and holds ten patents in microwave and optical communications, video switching, and broadband infrastructure. His current research is focused on high availability/high reliability enterprise computing.Shawn PopeDr. Ibraheem A. Kateeb, North Carolina A&T State University Ibraheem Kateeb received his B.S. in physics and mathematics from Yarmouk University in Jordan, and M.S.E.E. and Ph.D. degrees from
Session 1737 A New Workstation for Teaching Statics in Machinery Daniel K. Jones, Ph.D., P.E. Department of Mechanical & Industrial Engineering Technology State University of New York, Institute of TechnologyIntroductionWith increasing enrollment and decreasing funds for laboratory equipment, manyprofessors are facing challenges in providing hands-on experience for students inengineering technology. To address these concerns, a simple, inexpensive workstationhas been designed, built, and tested to teach students practical aspects of staticequilibrium. During Fall 2002, this new workstation
Page 8.826.9blurred the boundary between real world practice and classroom learning. By focusing on real- Proceedings of the 2003 American Society for Engineering Education Annual Conference & Exposition Copyright © 2003, American Society for Engineering Educationworld applications, learning becomes meaningful and real. While students actively participate insolving real world problems, they are also able to make full use of the capabilities of web-enhanced technologies to make their learning more efficient and engaging.Using web-based media will not only combat the challenges mentioned above, but also makes iteasier for other engineering programs to access and share courses and resources created byGreenfield
operate autonomouslywithin its environment, detect and avoid obstacles, and communicate with other robots. Theproject is analogous to unmanned aerial vehicles autonomously searching for and destroyingtargets. Once we discuss the desired learning outcomes that guided the execution of theproject, we share the lessons we learned from this multidisciplinary project experience andpoint out important pedagogical issues observed by both students and faculty.1. IntroductionRecently, an increasing number of higher education institutions are adopting team-based seniorcapstone design projects in their engineering senior design courses. The primary driving forcebehind the change is the requirement the Accreditation Board for Engineering and Technology(ABET
with reviewers.Through interactions with members of the entrepreneurial community and through assuming theentrepreneurial role, students can learn the discourse of that community.Seminal Elements of Experiential Learning and ApplicationsExperiential learning theory provides the underpinning for a program developed over the last twoyears for engineering and science students at Rice University. Presently the program consists of astudent-led entrepreneurial club, a business forum called the Rice Alliance for Technology andEngineering, and a course entitled “New Ventures Communication.” The course focuses on anindividual student or student team discovering an innovation to start a business, developing abusiness concept, giving a business concept
University of Texas (El Paso) in 2008. He earned his Ba ©American Society for Engineering Education, 2025 Capstone Design Experience at Southern Arkansas University – The Model, Implementation, and Relevance in ABET Accreditation Process.AbstractCapstone Design is a critical course in Bachelor of Science (BS) engineering degree programs.Since the introduction of the course in the 1980s, it has become an integral part of engineeringprograms not only in the United States (US) but also in foreign nations. The Accreditation Boardfor Engineering and Technology (ABET) places a heavy emphasis on Capstone Design experiencein its program evaluation because this course helps students transfer from school to the
and recruit Qataris toward STEM-related education and careers.The need is great: Some industry leaders estimate that Qatar’s national demand for citizens intechnical professions is more than double the available workforce — Qatar’s national populationis estimated at approximately 300,000 citizens.1 This demand does not account for rapidlyemerging needs in defense and national security as Qatar invests in high-tech defense systemsand weapons; government ministries are actively recruiting Qatari engineers and scientists tosupport deployment, maintenance and oversight of these technologies. As a result, there has beena need to introduce Qatari youth to new notions of the diverse range of engineering disciplinesand to highlight their significance
Engineering course, a required course for engineering students in all majors. Atthe junior and senior levels it is designed to support laboratories in Dynamics of Systems andMechatronics Design. Finally, as a stand-alone controller, it could potentially be applied tonumerous mechatronic student projects including the International Virtual Design Studio(IVDS), the Robotics Club, the SAE Walking Machine Challenge as well as several capstonedesign projects each year.The system is both technologically and pedagogically innovative. In terms of pedagogy, inprovides a new avenue of application for laptop computers in the undergraduate curriculum. Interms of technological innovation, the system is unique in that it functions as a data acquisitionsystem
include Construction Informatics and Visual Analytics; Building Information Modeling (BIM), Information and Communication Technology (ICT) for construc- tion management; and Interactive Educational Games and Simulations. E-mail: leen@ccsu.edu.Prof. Linda Reeder, Central Connecticut State University Linda Reeder, FAIA, LEED AP, is an Associate Professor at Central Connecticut State University. c American Society for Engineering Education, 2016 A Preliminary Study on Upper-Level Building Information Modeling Education for Construction Management StudentsBACKGROUNDOver the last decade, attention to building information modeling (BIM) has been steadilygrowing. Without a doubt, BIM
, West Virginia after receiving her BS and MS from the SouthDakota School of Mines and Technology. She completed her PhD at West Virginia University before joining theUMD in 1986. She teaches Hazardous Waste Processing Engineering and Material and Energy Balances.L. ALDEN KENDALL is professor and head of industrial engineering at the University of Minnesota Duluth. Hehas 28 years of academic experience as a teacher, researcher, and administrator. Fields of interest are designeducation, process models, simulation, and computer integrated manufacturing. He has a BMinE from theUniversity of Minnesota, MSIE from the University of Iowa, and a PhD in IE from the Ohio State University
Session 2553 Undergraduate Design and Research Experience at UW-Platteville Abulkhair M. Masoom, Fahmida R. Masoom University of Wisconsin-PlattevilleIntroductionAlthough there have been many different approaches and program mixes, the main focus inundergraduate engineering education still is to provide an education and training in engineeringprinciples and design. It is constantly changing to meet the changing needs of students. Thesechanges are prompted by industry demands, advances in technology, and availability of powerfuland affordable tools and
, American Society for Engineering EducationInstructor ResourcesWe do provide extensive notes for the students on each of the course topics and, under theauspices of NSF funding, we are writing a textbook to accompany the course. There are manywidely available resources that we have found particularly useful for this course. JOM, apublication of the Minerals, Metals, and Materials Society, has been publishing a series offeature articles under the topic of Archaeotechnology. These articles are often written byscientists and engineers but are at a suitable level for students in the course. MRS Bulletin, apublication of the Materials Research Society and Invention & Technology are also very usefulresources.There now exists an extensive range of
students in spring 2005). To teach such a large class, the instructors facedseveral challenges 1: • Students from diverse backgrounds with different prior knowledge of manufacturing • Vast scope of information the course intends to cover • Delivery of engineering knowledge in an interesting wayIn order to deal with these challenges, the instructors of IMSE 250 have tried to set up an activelearning environment in the classroom. A series of active learning strategies were designed toencourage the students’ participation in learning. These strategies are categorized as: • Application of advanced technologies - K-State online learning tool - Multimedia presentations by the instructors • Motivation