technologies, an emergence of new organizational and contractualstructures has developed. These activities coupled with new construction means, methods, andmaterials have caused new opportunities to pulsate throughout the construction industry Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition Copyright © Page 7.907.2 2002, American Society for Engineering Education(Tommelein and Fischer 1999). Agencies involved in the construction business have to implementstrategic plans to adapt to these changing forces and to prepare themselves for new opportunities.One of
. Perceiving and taking perspectives Informed designers consider multiple perspectives intelligently in defining the goals and priorities in their work. Conducting sustained technological Informed designers intentionally collect and use investigations evidence as they consider their design. Using design strategies effectively Informed designers use a variety of design practices in their work and can work effectively with others. Integrating and reflecting on knowledge Informed designers use knowledge from multiple and skills disciplines and reflect on their design activity.MethodsResearch
with a combination of multiple choice, fill-in-the-blank, and open response questions related to capstone course logistics, pedagogy, finances, andexternal relations, among others. The collection of questions was informed heavily by the previousnationwide and focused surveys referenced above, as well as discussions at previous capstone designconferences.The survey was implemented using SurveyMonkey and sent via email to the department chairs of allABET-accredited engineering and engineering technology programs, the ASEE DEED (Design inEngineering Education Division) monthly newsletter, and the Capstone Design Community mailing list.Recipients were asked to take the survey themselves if they were in charge of capstone design and/or toforward it
opinion thatthe use of lightboard feels as though it was like face-to-face in-class experience. Chart Title CM2001 - Construction Documents, Law, &… CM3003 - Construction Materials and Supervision CM3034 - Cost Estimating and Costing CM3035 - Project Planning, Scheduling, and… CVE5104/CVE6004 - Temporary Structures CVE5145/CVE6045 - Heavy Highway Estimating 0 5 10 15 20 25 30 35 40 45 Very Well Fairly Well Not MuchFigure 4. A chart showing how well the lightboard system enhanced and engaged students’learningSeveral informative themes emerged from comments
Paper ID #28905Where Do All the Pre-Majors go? A Self-Study of Student Stumbling Pointsin the Pre-Construction CurriculumDr. Kimberly Grau Talley P.E., Texas State University Dr. Kimberly G. Talley is an associate professor in the Department of Engineering Technology, Bobcat Made Makerspace Director at Texas State University, and a licensed Professional Engineer. She received her Ph.D. and M.S.E. from the University of Texas at Austin in Structural Engineering. Her undergraduate degrees in History and in Construction Engineering and Management are from North Carolina State Uni- versity. Dr. Talley teaches courses in the
Science, 10, 791 - 815. 11. Joseph, G. (2005). Global Virtual Engineering Team Utilization in the Engineering, Procurement, and Construction (EPC) Industry. Technical Report, Department of Architectural Engineering, Penn State University. 12. Lin, C., Standing, C., Liu Y.C. (2008). A Model to Develop Effective Virtual Teams. Decision Support Systems, 45, 1031-1045. 13. Loughry, M.L., Ohland, M.W., Moore, D.D. (2007.) Development of a Theory-Based Assessment of Team Member Effectiveness. Educational and Psychological Measurement, 67(3), 505-524. 14. Ocker, R. Webb, Hiltz, and Brown. (2010). Learning to Work in Partially Distributed Teams: An Analysis of Emergent Communication Structures and Technology
, 1988. 78(7): p. 674-681.23. Felder, R.M., et al., The future of engineering education. II. Teaching methods that work. Chemical Engineering Education, 2000. 34(1): p. 26-39.24. Oppenheimer, T., The computer delusion. The Atlantic Monthly, 1997. 280(1): p. 45-62.25. The Design-Based Research Collective, Design-based research: An emerging paradigm for educational inquiry. Educational Researcher, 2003. 32(1): p. 5-8.26. Akker, J.V.D., Principles and methods of development research, in Design methodology and developmental research in education and training, J.V.D. Akker, et al., Editors. 1999, Kluwer Academic Publishers: The Netherlands.27. Reeves, T., Design research from a technology perspective, in Educational design research, J.V.D
drives course. Courseassessments were conducted on a regular basis by an external evaluator, under a thorough evalu-ation plan that included formative and summative assessments. The assessment outcomes arepresented in Section III. Page 23.422.3II. Background Information and General RemarksThe power programs in the electrical and computer engineering departments at both institutionswere in need of a new educational approach for bringing timely topics such as renewable energyconversion and vehicle electrification concepts into the undergraduate classrooms. In this re-spect, power electronics as a key enabling technology was identified as a
was not motivated by socialconcerns. The third pre-game cluster differed from the second in that all the students had asocial outlook, in addition to interests in personal benefits and the opportunity to design withcertain markets and technologies.In contrast, just two “named” clusters emerged with the post-game responses. The two post-game clusters differed in the social outlook of the students. In post-game cluster #1, none of thestudents were interested in solving social problems and were motivated by their areas of interestand personal-type issues. In post-game cluster #2, all the students had a social outlook inaddition to being motivated by designing in certain markets and technologies and achievingpersonal benefits. Based upon these
Partnership and the American Society of Civil Engineers including services on the Committee on Critical Infrastructure as well as the American Society of Engineering Education.Johnette C. Shockley, U.S. Army Corps of Engineers, Engineer Research and Development Center Johnnie Shockley is a Civil Engineer/Technology Transfer Officer with the US Army Corps of Engineers (USACE) Engineer Research and Development Center (ERDC), Office of Technology Transfer out of the ERDC’s executive office located in Ft. Belvoir, Va. Johnnie currently works virtually as the Office of Research and Technology Applications (ORTA) for the ERDC Cold Regions Research Laboratory in Hanover, NH., and the Topographic Engineering Center, Research
Correspondence email: daniela.galatro@utoronto.caAbstractIndustry 5.0 (I.D. 5.0) envisions an efficient, productive industry with a strong societal role.Education 5.0 (E.D. 5.0) fosters human-centric, personalized, and collaborative learning,integrating advanced technologies such as Artificial Intelligence (AI) and Machine Learning (ML).Chemical Engineering (Chem Eng) courses like Process Design and Plant Design require studentsto integrate knowledge across disciplines to solve complex engineering problems. This workidentifies gaps in aligning I.D. 5.0 with E.D. 5.0 and present strategies for revamping CHE 334(Team Strategies for Engineering Design), a bridge course between Process Design and the PlantDesign capstone, emphasizing teamwork, leadership
of models for teachingnanoscale concepts were investigated during a two-week professional development workshop ledby the NCLT. Workshop activities aimed to broaden teachers’ conceptions on the utility ofmodels for design- and inquiry-based instruction. While teachers expanded their views, theirselected nanoscale science and engineering models lacked the design and inquiry componentsthat we hoped to achieve. This information facilitates refinements to our modeling activities forfuture professional development workshops. Ultimately, we aim to provide teachers with thesupport they need to use models of nanoscale phenomena as tools for engineering design andscience inquiry.IntroductionIncreased federal funding of nanotechnology-related research
academically [1], [2]; academic environments can significantly affect students’ sense ofbelonging more broadly [3], [4]. In the past decade, makerspaces have emerged as a criticalspace for informal learning on college campuses, fostering creativity and curiosity inundergraduate students through hands-on projects and activities. The Learning Factory at ThePennsylvania State University has been an active makerspace for students and the communitysince 1995. While the space started as a 3,500 sf building ([5], [6]), it has recently grown to over40,000 sf integrated into the new 105,000 sf Engineering Design and Innovation Building, wheremost cornerstone and capstone courses are taught. These courses have always incorporatedmaking into the curriculum, but
seesimilar case study experiences in the remainder of their educational experience. When comparedto completing an assignment solely for a grade in a class, 94.4% of the students said thecompetition motivated them to try harder. 91.7% of the students said that after completing thiscase study competition, they felt as though they now had a better understanding of how theywould conduct a business or engineering study and sell their work to upper level management.94.4% of the students said that going forward they felt as though they had a better understandingof how to assess the capabilities and impact of an emerging technology on SCM as a result oftheir participation in this Race to the Case competition.Student Comparison of the Two Case Competition
, 2006.27. R. Chambers. Shortcuts and participatory methods for gaining social information for project. In M. M. Cernea (Ed.) Putting People First: Sociological variables in rural development. New York, Published for the World Bank [by] Oxford University Press, 1991.28. J. Shook. How to go to the GEMBA: Go see, ask why, show respect. Retrieved on Febraury 21st, from http://www.lean.org/shook/displayobject.cfm?o=184329. R. Chambers. Participatory rural appraisal (PRA): Challenges, potentials and paradigm. World Development, 22 (10), 14737 – 1454, 1994.30. L. Damodaran. User involvement in the system design process - a practical guide for users. Behaviour & Information Technology, 15(6), 363–377, 1996.31. K Krippendorff. The
Paper ID #47428Empowering Energy Education: Region-Specific Insights into High SchoolEnergy Literacy Infrastructure across Nebraska (fundamental research paper)Karen Anabel Acurio Cerda, University of Nebraska - LincolnSourav Sutradhar, University of Nebraska - LincolnOghenetega Allen Obewhere, University of Nebraska - LincolnRajesh Keloth, University of Nebraska - Lincoln Rajesh Keloth received his B.Tech degree in Polymer Science and Technology from the Indian Institute of Technology Roorkee (India) and his M.Tech in Rubber Technology from the Indian Institute of Technology Kharagpur (India). He is a PhD student in Chemical and
it’s not always like you have this, so just deal with whatever you have. (Melani, Teaching)Regardless of the type of technology used to connect with other students, the Start alone, Endalmost together style was very similar to the Start alone, End together style where studentsintentionally decided to begin a task on their own and then as difficulties arose or the assignmentcame to an end, to come together. Unlike the Start alone, End together style, however, Startalone, End almost together students tended to favor electronic communication, informal, lessstructured, or less scheduled exchanges over planned meetings. Combined, these two stylesdominated the study styles observed by students at three of four institutions (Teaching, Research,and
Director of Research and Evaluation at PowerUP, a national nonprofit organization dedicated to expanding technology access and providing youth development resources for underserved youth. Schneider-Bentley’s current research interests include race, class, and gender inequality in educational access and retention, in particular, issues of access, climate, and the quality of student learning in undergraduate engineering education. c American Society for Engineering Education, 2017 Chalkboard vs. paper: technique for improving collaboration in active learning activitiesIntroductionThis study builds on an innovation in the format for collaborative group work in a first
University PAUL E. ROSSLER directs the Engineering and Technology Management Program and co-directs the Legal Studies in Engineering Program at Oklahoma State University and is an Associate Professor of Industrial Engineering and Management. He is a licensed professional engineer and holds a M.S. and Ph.D. in industrial engineering from Virginia Tech. Page 11.23.1© American Society for Engineering Education, 2006 A Comparative Study of Professional Ethics: What Can the Ethics of the Legal Profession Teach Engineers?AbstractEngineering faculty, technical managers, and practicing engineers
Mechanical Engineering, Universiti Teknologi Malaysia (UTM), and is affiliated to the UTM Regional Centre for Engineering Education. He is currently the Graduate Programme Coordinator for the Department of Industrial and Manufacturing Engineering. He has a Bachelor of Science in Mechanical Engineering and a Master in Mechanical – Advanced Man- ufacturing Technology, and a PhD in Engineering Education. Prior to joining UTM, he had worked as a research officer in Standard and Industrial Research Institute of Malaysia (SIRIM) and as an engineer in various industries, such as INTEL and SIME-DARBY. Syed Helmi was a visiting scholar in University of Waterloo, Canada, and one of a task force member in-charge of propagating
engineering. A brief summary of the program objectivesand associated activities is outlined as follows. Additional program details can be foundelsewhere 31. Objective 1 activities: Teachers are paired and then matched with an engineering faculty mentor. The mentor assists the teachers in understanding the current status of emerging technologies and engineering research, and provides informal instruction in research methodology and science theory appropriate to the teacher’s research experience. Objective 2 activities: During the four-week summer program, each teacher prepares hands-on engineering-related instructional materials to integrate into their classroom curriculum. Support is provided by
collaboration.Two junior (tenure-track) faculty members, after experiencing nearly a year of uncertainty andangst based on changing university requirements for class modalities [Johnson et al., 2020], animpending student enrollment cliff [ACE, 2020], and the potential of serious illness or death tothemselves or loved ones, came together in Spring 2021 to plan and deliver a highlysynchronized and remote introductory engineering mechanics course. At the forefront of theirplanning was that their instructional approaches would be resilient against any number ofuncertainties and unknowns, including institutional guidance that one would serve as a backupinstructor should serious illness or death befall the other. What emerged from this collaborativeteaching
training).These courses detail the basic principles of lab safety, basic safety rules, safety contacts, andactions to take in case of emergency. Students also complete two SACHE AIChE safety trainingmodules: ELA950 and ELA954 [19]. As described by AICHE [19], ELA950 introduces studentsto process safety and provides them with a basic understanding of fundamental concepts andtheir application in real world problems. ELA 954 reinforces laboratory safety conceptspresented in our EHS training modules and prepares students to work in chemical engineeringlaboratories.To introduce students to the practice of laboratory safety, we required each student to workindividually and in teams in the development of three safety assignment for each of the
Education Annual Conference and Exposition. 2005. Portland, OR.19. House, R., et al., "Assessing Engineering Communication in the Technical Classroom: The Case of Rose-Hulman Institute of Technology," in Assessment of Writing, M.C. Paretti and K. Powell, Editors. 2009, Association of Institutional Research: Tallahassee, FL. p. 127-158.20. "The VALUE Project Overview." Peer Review, 2009. 11(1): p. 4-7.21. Finley, A.P., "How Reliable Are the VALUE Rubrics?" Peer Review, 2011. 13/14(4/1): p. 31-33.22. Rhodes, T.L., "Emerging Evidence on Using Rubrics." Peer Review, 2011. 13/14(4/1): p. 4-5.23. Association of American Colleges and Universities, "Liberal Education Outcomes: A Preliminary Report on Student
Paper ID #47594Lessons Learned in Developing ROS Asynchronous Tutorials for Roboticscourse: Guided versus Inquiry based LearningEvan Kusa, Duke UniversityProf. Siobhan Oca, Duke University Siobhan Rigby Oca is an assistant professor of the practice in the Thomas Lord Department of Mechanical Engineering and Materials Science at Duke University, NC, USA. She received her B.Sc. from Massachusetts Institute of Technology and Master in Translational Medicine from the Universities of California Berkeley and San Francisco. She completed her Ph.D. in Mechanical Engineering in 2022 from Duke University. Her research interests include
Education & Educational Technology at Purdue University. After study- ing philosophy, religious studies and information science at three universities in Germany, he received his M.Ed. and Ph.D. (2004) in Learning Technologies from the University of Missouri-Columbia, USA. NSF, SSHRC, FQRSC, and several private foundations fund his research. His research and teaching focuses on the intersection between learning, engineering, the social sciences, and technology, particularly sus- tainability, designing open-ended problem/project-based learning environments, social computing/gaming applications for education, and problem solving in ill-structured/complex domains
Paper ID #37763Measuring the Authenticity of Engineering Learning in Community ofPractice: An Instrument Development and ValidationProf. Wei Zhang, Zhejiang University 2015-Present Professor, Institute of China’s Science,Technology and Education Strategy, Zhejiang Uni- versity Associate director of Research Center on Science and Education Development Strategy, Zhejiang University 2012-2014 Professor, School of management, Hangzhou Dianzi University Dean of Organiza- tion Management, School of management, Hangzhou Dianzi University 2008-2012 Director of Teaching & Research Division, School of management, Hangzhou Dianzi
physics courses. She makes use of writing as a learning and assessment tool for understanding how non-majors learn physics. Embedded within this research is the study of how the formal assessment of student learning styles can enhance learning in physics. An additional focus of her research involves studying the role of technology as an assessment and learning tool. Dr. Larkin has been an active member of the American Association of Physics Teachers (AAPT) and the American Society for Engineering Education (ASEE) for over 20 years. She served on the AAPT Minorities in Physics Committee from 1997 – 2000, was Chair of the Physics and Engineering Physics Division from 1994 – 1996 and from
Paper ID #18583Designing for assets of diverse students enrolled in a freshman-level computerscience for all courseDr. Vanessa Svihla, University of New Mexico Dr. Vanessa Svihla is a learning scientist and assistant professor at the University of New Mexico in the Organization, Information & Learning Sciences program, and in the Chemical & Biological Engineering Department. She served as Co-PI on an NSF RET Grant and a USDA NIFA grant, and is currently co-PI on three NSF-funded projects in engineering and computer science education, including a Revolutioniz- ing Engineering Departments project. She was selected
relationalskills, both of which are essential when modeling even simple geometric objects [13].AR, an emerging technology could provide a solution to this problem. The potential benefits ofAR are improvements in students’ abilities with respect to spatial cognition, conceptdevelopment, decision making as well as design modifications and refinements due to thesupport for viewing and ‘touching’ the design. Current AR technologies can help improve designand visualization skills, aid in scientific simulations, and serve as a tool for learning [2], [14],[18].In this paper, we explore the opportunities that 3D modeling and AR provide in enhancingspatial reasoning skills of youth. We present a brief overview of the after-school engineeringcurriculum where this 3