Paper ID #28427NSF INCLUDES: Leveraging Precollege STEM Programs for BroadeningParticipation in Undergraduate STEMDr. Alaine M Allen, University of Pittsburgh Dr. Alaine M. Allen is an educator who opens doors for students, particularly individuals from groups historically marginalized in science, technology, engineering and mathematics, and she is committed to creating a culture of inclusive excellence in STEM environments. Dr. Allen is the director of K-12 Out- reach and Community Engagement in the University of Pittsburgh, Swanson School of Engineering and a co-director of the Broadening Equity in STEM Center at
under-represented minorities pursuingbaccalaureate degrees in science, technology, engineering, and mathematics. Page 8.391.1 Proceedings of the 2002 American Society for Engineering Education Annual Conference &Exposition Copyright © 2002, American Society for Engineering Education Table 1. Historical UTEP Student Demographics. Fall Semester Percent Caucasian Percent Hispanic 1975 54.4 34.8 1983 43.8 45.5 2002
performance arediscussed.I. IntroductionThe mechanics of materials course is one of the core courses for students in civil, mechanical,aerospace, metallurgical, ceramic, geotechnical, and architectural engineering programs. Thecourse is also included in architecture, engineering mechanics, engineering physics, engineeringmanagement, and engineering technology curricula. The course is typically taken during thesophomore or junior years after students complete their general mathematics and sciencepreparation. The mechanics of materials course introduces students to the principles involved indesigning typical components found in machines and structures such as drive shafts; floor beams,pressure tanks, and bolted connections. The course explores various
ratings as is seen in the secondsemester results. In this case, a better understanding of the skills and behaviors and therating process was precipitated by a special class session on the importance of accuratepeer and self-assessment that was presented during the second course. By the thirdcourse, the student ratings are now founded on a more realistic base. Therefore studentsare able to assess their skill levels more accurately. Now if real learning occurs, the selfand peer ratings should reflect the increase level of competency. In our experiment, this isthe case across all three skills.References1. Durfee, W.K. (1994). “Engineering Education Gets Real,” Technology Review, 97(2), 42-51
information on practices in place for the current visit cycle; what are the latestissues, how evaluators are looking at materials, and so on.There is no substitute for experience and all engineering administrators should considervolunteering as an ABET evaluator.19 One of the keys to ABETs’ past and future success ishaving a cadre of effective evaluators. ABET is focusing a great deal of its current improvementefforts on improving the performance of program evaluators.20ABET has a long history of conducting faculty workshops first to introduce faculty to EC 2000and today to provide information on how to do assessment.Rose Hulman Institute of Technology has been holding an annual symposium on assessmentsince 1997. The 2007 symposium is entitled “Best
response to a national concern in the early 1990s about poor retention of students inengineering combined with a real, or some would say critical, need for more engineers, The OhioState University (OSU) worked with nine other schools to form the Gateway EngineeringEducation Coalition. This need for engineers was and currently is driven by society's ever-increasing consumption of technology. The Coalition, led by Drexel University, was establishedas a result of the creation of an Engineering Education Coalitions program by the NationalScience Foundation. These schools agreed to adopt or adapt Drexel's E4 program1-2 forfreshmen and sophomores which put engineering "up-front" and specifically included hands-onlabs and incorporated design projects
. Papadopoulos has diverse research and teaching interests in structural mechanics and bioconstruction (with emphasis in bamboo); appropriate technology; engineering ethics; and mechanics education. He has served as PI of several NSF-sponsored research projects and is co-author of Lying by Approximation: The Truth about Finite Element Analysis. He is active in the Mechanics Division.Eric Davishahl, Whatcom Community College Eric Davishahl holds an MS degree in mechanical engineering and serves as associate professor and engineering program coordinator at Whatcom Community College. His teaching and research interests include developing, implementing and assessing active learning instructional strategies and auto-graded online
hasadded both flexibility and capability to the engineering experimentation curriculum in achievingthese goals. The coupling of numerical simulation and experimentation for demonstration andcomparison purposes is widely used. New technologies also allow experiments to be controlledover the Internet in a remote or distance education format. However, the most recent laboratoryincarnation, virtual experimentation, is the use of numerical techniques to simulate the entireexperimentation process (equipment and data).Virtual experimentation generates reactions of great enthusiasm and trepidation amongengineering educators. Many educators see wide ranging applications of these techniques withadvantages in terms of learning pedagogies, equipment costs
Session 2147 Remote Data Acquisition using Bluetooth David R. Loker, P.E. Collin G. Frampton, Titan J. McElhaney, Jonathan R. Mook, Anthony M. Sansone Penn State Erie, The Behrend CollegeAbstractIn this paper, a remote data acquisition project using Bluetooth technology is presented for asenior technical elective telecommunications course in the Electrical Engineering TechnologyBaccalaureate Program at Penn State Erie, The Behrend College. There are several noteworthycharacteristics of this project
157 Why Do They Come, Why Do They Not Return Stuart Kellogg South Dakota School of Mines and TechnologyAbstractDeclining interest in engineering in high school students exacerbated by traditionally high studentdropout rates in engineering have led to steep enrollment decreases in many engineeringprograms. While there is substantial research evidence to the contrary, many engineering facultymembers continue to view the attrition positively, believing that most students who leaveengineering do so either because of poor academic preparation, a lack of commitment
AcceleratedEntry Program (LEAP), a program that prepares students with non-engineering degrees, fromany geographic location, for entry into master degree programs in engineering. It was decidedthat eliminating constraints to the learning environment, such as proximity to campus, wouldmake the program or courses more attractive to potential students outside the Boston area 2.The goal of the pilot study was to redesign a specific engineering course through a challengingapplication of distance education technologies and distributed learning pedagogies, with theultimate purpose of raising the entire LEAP program to a higher level. At a time when it takes
a PhD student in Engineering Education Systems and Design at Arizona State University. Mr. Halkiyo Bachelor of Science from Hawassa University, and Masters of Science in Civil Engineering from Arba Minch University, both in Ethiopia. Mr. Halkiyo uses mixed methods to study his primary research interest: broadening the participation of Engineering Education in Ethiopian universities to in- crease the diversity, inclusivity, equity and quality of Engineering Education. He studies how different student-groups such as women and men, rich and poor, student from rural and urban, technologically literate and less literate can have quality and equitable learning experiences to not only thrive in their performances
Society for Engineering EducationEach term, The University of Dayton offers a Project Management course, which theEngineering Technology Department requires of all its majors. The primary goal of thiscourse is to familiarize Sophomore and Junior level students with the tools and techniquesnecessary to manage a project. The course also seeks to expose students to the real lifecomplexities of managing a large-scale project. Students will use their projectmanagement skills in managing projects in other courses, notably the Senior Designcapstone course. Project management concepts can be taught to students in a traditionallecture format, but unless the students have previously been involved in a project as aleader or member of a team, they tend to
institutions. They are most commonly taught at anintroductory level to community college students in technology programs. In engineering pro-grams it is uncommon to find a course that focusses only on PLCs, they are often a topic withinautomated/integrated manufacturing systems courses. High quality texts that can support intro-ductory PLC courses are available2,5,6,8,9 and these can support higher level courses with supple-mentary material. Other high quality texts are available that discuss integrated manufacturingsystems with chapters on PLCs1,3. You can find an example of a complete logical controls systemcourse at http://claymore.engineer.gvsu.edu/eod/egr450.html.At Grand Valley State University we designed a logical controls course entitled
in meaningful learning [1].With the adoption of recent science standards (i.e., NGSS); teachers are faced with the task ofintegrating engineering design into their science instructions and making connections betweenScience, Technology, Engineering, and Mathematics (STEM) disciplines in their instructions.This is partly daunting for elementary teachers, given their minimal preparation in engineering[3]. While STEM education is recognized by educators and research communities asimportant, there is no common understanding or agreement on the nature of STEM education asan integrated endeavor. Consequently, K-12 teachers have limited guidelines and teachingmodels to follow regarding how to teach integrated STEM [4].Without clear
of goals—personal, academic, and career. Thesegoals ranged from proximal (e.g., during the quarter) to more distant, and often less well-definedgoals (e.g., long-term). Table 1 shows the goals Jessica and Nolan described, set, and monitoredthroughout the three quarters, and illustrates how their goals ranged from more specific,actionable goals to more abstract, visionary goals.Table 1. A Summary of Students’ Goals as Described in Longitudinal Interviews. Jessica NolanFall Help others with technology Use engineering to benefit Spend more time tutoring [a society special needs child] Use engineering to
and Computer vsMechanical topics) and helping students understand theimportance of all topics. The selection of the myRio wasexpensive and led to frustrating technical issues, some of AUTHOR INFORMATIONwhich were not ever fully resolved. In the future, the selectionof Arduino over the myRio will hopefully provide a less John Miller Senior Lecturer and Assistant Chair,expensive, more user-friendly device for future design Department of Electrical and Computer Engineering, Schoolprojects. The less expensive technology purchase will allow of Engineering and Computer Science, Baylor University,for the selection of additional textbooks, such as a technical John_Miller1
. Moore, D. and Berry, F. (1999). Industrial sponsored design projects addressed by student design teams. Proceedings of the 29th Annual Frontiers in Education Conference, pt. 1, p. 11B2/15-20.7. Conn, A.F. and Sharpe, W.N., Jr. (1993). An industry-sponsored capstone design course. Proceedings of the Frontiers in Education. Twenty-Third Annual Conference. Engineering Education: Renewing America's Technology, p. 493.8. Bales, W.J., Counce, R.M., Dodds, H.L., Edmondson, A.J., Ford, R.E., Raman, D.R., Speckhart, F.H., Shannon, T.E., Tompkins, F.D. and Yoder, R.E. (1997). Industry-sponsored student design teams in engineering at the University of Tennessee, Proceedings. Frontiers in Education 1997, 27th Annual Conference. Teaching and
areas at Lawrence Technological University. As Chair ofthe Design Engineering Education Committee (DEC) of ASME she was active in organizing sessions in TotalQuality in Design Engineering Education, Engineering curricula in pre-college education, and is the liaison andmember of the Board on Pre-College. Currently, she is responsible for collaborative effort to incorporate MfgEcourses into ME curriculum.Mohamed El-Sayed, Ph. D. is a professor of Mechanical Engineering at Kettering University and has been teachingfor 25 years. He teaches Machine Design, Automotive Design, Design Optimization, and MultidisciplinaryOptimization on both the undergraduate and graduate level. He has over fifty research papers of topics ranging fromfinite element
; Practice I(ENGR 110), includes introduction and practice in skills fundamental to the engineeringprofession. The second course, Engineering Methods, Tools, & Practice II (ENGR 111), involvesinterdisciplinary student teams expanding on and applying these skills by means of a hands-onCornerstone project. ENGR 111 takes place in a 15,000 square foot makerspace and featurespedagogy in numerous institutionally-identified fundamental engineering skills.Each of these aforementioned skills are practiced in ENGR 111 through both discrete instructionas well as integration with a culminating Cornerstone project. For instance, early in the semester,students are exposed to the basics pertaining to 3D printing technology – in addition to training inhow to
to Sustainable Thermal Energy Storage Technologies at West Texas A&M University,” Proceedings of the ASEE GSW Annual Conference, 2018.10. Issa, R., Leitch, K.R., and Manla, E., 2023. “Design of a Novel Mobile Solar-PV Energy System for an Average House in the Texas Panhandle,” Proceedings of the ASEE GSW Annual Conference, 2023.KENNETH R. LEITCHDr. Leitch holds BS, MS, and Ph.D. degrees in Civil Engineering from New Mexico State University and an M.B.A.from Colorado Christian University. He is an Associate Professor of Civil Engineering in the College of Engineering atWest Texas A&M University in Canyon, Texas and is a registered professional engineer by examination in Texas andIndiana. He is active in the structural
Session 2433 A Novel Solution for California’s Energy Crisis: Wind Power Transmission from Energy Rich North Dakota to California through HVDC Lines Recayi Pecen William Leighty Electrical & Information The Leighty Foundation-Alaska Engineering Technology Program University of Northern IowaAbstractThis paper first investigates feasibility of establishing a 7,000 MW power capacity wind farm, and theconversion of the total AC electrical power of 4,000 MW to the DC in a large converter station inOlga, North Dakota. Then it includes
Session________ Selection of Curricular Topics Using Extensions of Quality Function Deployment Paul Kauffmann, Abel Fernandez, Charles Keating, Derya Jacobs, Resit Unal Department of Engineering Management College of Engineering and Technology Old Dominion University Norfolk, VA 23529AbstractDecision science can be an effective tool for enhancing organizational participation during strategic andcomplex decision making. This involvement develops a group consensus for relating organizationalgoals and the methods to achieve
Quantum Brain-Computer Interface Farbod Khoshnoud Electromechanical Engineering Technology Department, College of Engineering, California State Polytechnic University, Pomona, CA Center for Autonomous Systems and Technologies, Department of Aerospace Engineering, California Institute of Technology, Pasadena, CA Department of Mechanical Engineering, University of California, Riverside, CA, USA Marco B. Quadrelli Mobility and Robotic Systems Section, Jet Propulsion Laboratory, California Institute of Technology, Pasadena, CA, 91109-8099, USA
. Examples of advanced technologies include autonomous vehicles,cloning, fusion, 3D printing, on-demand drug manufacturing, facial recognition, digitalcomputing, advanced materials, and many other applications such as those listed in Table 1.These technologies are producing significant benefits to aid humankind to solve demandingsocioeconomic challenges and technological issues. However, the pitfalls must be studied andconsidered with appropriate levels of constraints. Proceedings of the 2024 Conference for Industry and Education Collaboration Copyright ©2024, American Society for Engineering Education ETD 345
atmospheric pressure on Mars. Dr. Boccio frequently collaborates with faculty from other departments on grants, pedagogical research, and course design. She has mentored numerous faculty from outside her department in the eLearning program.Dr. Dugwon Seo, City University of New York, Queensborough Community College Dr. Dugwon Seo is an assistant professor in the Engineering Technology Department at Queensborough Community College. Dr. Seo has been teaching engineering technology courses including digital circuit, computer applications, computer-aided analysis, and renewable energy. Her research interest includes various renewable energy, digital circuit system, remote sensing, and technology education.Dr. Sirin Budak
research • encouraging participation in science and math through space-science • using the broad appeal of space to foster programs and curricula in public schools • increasing the pool of high school graduates — with an emphasis on under- represented minorities and women — who enter college to study science, technology, mathematics, and engineering 9Program BackgroundThe Texas Space Grant Consortium Design Challenge Program has its roots in theNASA/USRA Advanced Design Program [NASA/USRA ADP] that existed from 1985 through1995 5. This program, administered for NASA by the Universities Space Research Association[USRA], promoted NASA-focused design efforts at forty universities across the United States,and provided the impetus for the
visibility allowsefficient coordination of operations supply chain and logistics systems through technologies likeradio frequency identification (RFID) tracking and improve overall system effectiveness. Withaccurate data, supply chain analysis become even more effective and profitable.Examples of such initiatives that have been investigated by Dr. Erick Jones through fundingfrom NASA EPSCOR, Department of Transportation, and Nebraska Department of Economicdevelopment, along with numerous industry projects as an NSF Industry University site directorinclude (but are not limited to): Engineering manufacturing techniques that may lower the overall cost of implementing active RFID tags in the supply chain New methods for applying and
to proposed retrofits to existing nuclear power plants and the plans for all-digital systems in the new plants 8. The industry is presently undertaking significant efforts in this area and is expected to continue to do so into the near future given the issues (e.g., common cause failure due to software errors) that present themselves in qualifying digital technology for nuclear reactor safety systems. The recent process behind and the installation of digital feedwater controllers at PVNGS makes an excellent case study for this topic.9. Human Factors – examines issues such as human performance in engineering, shift work impact and fitness-for-duty. Control room modifications and the use of control room
2006-1295: UNDERSTANDING THE EUROPEAN BOLOGNA PROCESSMichael Dyrenfurth, Purdue UniversityMichael Murphy, Dublin Institute of Technology The author is a director of DIT and dean of the Faculty of Engineering. DIT is Ireland's largest third level institution, with over 20,000 students. Page 11.1364.1© American Society for Engineering Education, 2006 Understanding the European Bologna ProcessAbstract - This paper describes the European Bologna process, provides a ‘mid-term’review of its implementation status and discusses its possible positive and negativeimpacts on US – European links in the fields of