. Overall studentperformance in major assignments shows improvement in the blended class as compared to theregular class, thus indicating better knowledge retention in the redesigned course. Finally, theredesigned course shows active class engagement as obtained from video analytics data.1. IntroductionIn recent years, education in the STEM field has transitioned from traditional face-to-faceinstructional models to newer learner-centered approaches. An important aspect in these newerpedagogical models is integration of technological tools with traditional methods. As reported inliterature, the positive outcomes of technology-reinforced learning in STEM education includepositive attitudes toward content learning, greater retention of direct content
Paper ID #37861Students’ Complex Perspectives on Diversity—A Mixed Methods Pilot StudyDr. Sarah Hug, Colorado Evaluation & Research Consulting Dr. Sarah Hug is director of the Colorado Evaluation & Research Consulting. Dr. Hug earned her PhD in Educational Psychology at the University of Colorado, Boulder. Her research and evaluation efforts focus on learning science, technology, engineering, and mathematics. Her experiences in K12 schools and informal learning environments, as well as Minority Serving Institutions, informs and enriches her work.Dr. Wendy Chi, University of Colorado, Boulder Dr. Wendy Chi is
students in a flipped classroom demonstrated an increased desire to interact withtheir peers, explain concepts, and learn from each other, providing “more opportunities forcollaboration and problem-solving” while increasing student communication skills.Incorporating active learning strategies has shown positive results in engaging students andstrengthening knowledge and higher levels of achievement. Today’s millennial students havegrown up with technology and process information differently than past generations. Prensky[10] discusses the millennial as “digital natives” and how they have access to information at theirfingertips preferring to learn in an active and collaborative environment. Educators need to movefrom “rote memorization of
introductory first year engineering course. Dr. Sanford Bernhardt serves on the American Society of Civil Engineers’ Task Committee on the 3rd Edition of the Civil Engineering Body of Knowledge and the Transportation Research Board Committee on Education and Training. She previously has served as vice-chair of the ASCE Infrastructure Systems Committee, chair of the ASEE’s Civil Engineering Division, and a member of the Transportation Research Board committees on Artificial Intelligence and Advanced Computing, Asset Management, and Emerging Technology for Design and Construction. She received her Ph.D. and M.S. from Carnegie Mellon University, and her B.S.E. from Duke University.Dr. Mary Roth P.E., Lafayette College Mary
information pathways and observed the resulting performance. In assessing theoverall achievement and results of the study, the reviewers concluded that “the mechanism usedin Escherichia coli to combat heat shock is just what a well trained control engineer woulddesign, given the signals and the functions available.”35One can easily see that these kinds of conclusions naturally lead to interesting discussions abouthow such exquisite engineering can emerge by accident. Nevertheless, researchers continue toapply reverse engineering techniques to natural systems simply because it works. Biologist E. O.Wilson writes, “The surest way to grasp complexity in the brain, as in any other biologicalsystem, is to think of it as an engineering problem…Researchers
Cs are: ● Demonstrate constant curiosity about the changing world (Curiosity) ● Explore a contrarian view of accepted outcomes (Curiosity) ● Integrate information from many sources to gain insight (Connections) ● Assess and manage risk (Connections) ● Identify unexpected opportunities to create extraordinary value (Create Value) ● Persist through and learn from failure (Create Value)Building upon the KEEN framework and its foundational mission, the network’s stated goal is tograduate engineers with an EM who can create personal, economic, and societal value throughmeaningful work [10]. KEEN emphasizes instilling an action-oriented mindset in undergraduatestudents in science, engineering, and technology, ensuring they are
studyundergraduate researchers (N=10) participating in a REU program at a large research university.A key finding from the qualitative data was the role that graduate mentors played as “copingmodels” in developing undergraduate participants’ self efficacy, and consequently, theiracademic and career plans involving doctoral-level work. This study has implications for betterunderstanding the advantages of summer undergraduate research experiences such in recruitingand retaining qualified students for graduate studies and research careers. In particular, these datamake the case for fostering formal and informal interactions between graduate students andundergraduate researchers and for including specific opportunities for participants to learnvicariously
multiple disciplines and to explore how integration of dimensions ofsustainability and social issues can lead to novel solutions to traditional engineering problems.This paper details the curriculum and innovative instructional techniques developed for thesemester-long seminar-style course at a large public university, including the design oflaboratory activities, writing assignments, class discussion activities, and a term project. Studentswere also introduced to a variety of professions related to buildings through field trips and guestlectures, enabling the course to address challenges associated with emergency management, cityplanning, and low-income housing. While the activities described here were created for use inthis holistic, semester
moresuccessful in learning: “I was motivated to learn because I want to take this information and implement it in my classroom.” “I had a need to learn more on how to implement science and technology in my lessons.” “As an educator I am always looking to learn new techniques that can be incorporate into the curriculum. I know that engineering is a major component to helping the students build problem solving and team work skills.”Some teachers mentioned that peer teachers, instructors, or real engineers inspired them to learnengineering. “I was more motivated in this academy because I was with my team mates during the training.” “Most instructors encouraged us to think like and explore like students
AC 2011-1822: INDUSTRY EXPERIENCE AND PERSPECTIVE: A SUR-VEY OF ADVICE BRIGHAM YOUNG UNIVERSITY CAPSTONE ALUMNISHARE WITH INCOMING STUDENTSTaylor Halverson, Brigham Young University Taylor Halverson earned a double major PhD at Indiana University in Instructional Technology and design and Judaism and Christianity in antiquity. He earned Master’s degrees from Indiana University and Yale University. His Bachelor’s degree was earned at BYU. Dr. Halverson spent several years working for Cisco in Silicon Valley where he designed creative learning experiences for thousands of customer service agents spread across the globe. Dr. Halverson currently works as a Teaching and Learning Consultant at BYU, assisting faculty
was first piloted in Spring 2021 and iterated for Autumn 2021 (Table 1). Atotal of 39 UTAs and 188 instructional team members participated in completing the training module in the Springand Autumn of 2021, respectively (Table 1). University IRB approval (Study ID:2021E1166) was obtained to collectthe module responses for this study.The first iteration (Spring 2021) of the module videos was developed based primarily on the KEEN Framework [18].Learning objectives focused on the Entrepreneurial Mindset as well as on the 3Cs (curiosity, connection, creatingvalue) (Table 1). More information on that iteration of the module can be found in our short paper on the subject [19].Modifications to the second iteration of the module (Autumn 2021) were
Education.Espinoza, V. P. R., Cárdenas-Salas, D., Cabrera, A., & Coronel, L. (2021). Virtual Reality and BIM Methodology as Teaching- Learning Improvement Tools for Sanitary Engineering Courses. International Journal of Emerging Technologies in Learning, 16(6), 20–39. https://doi.org/10.3991/ijet.v16i06.13535Fei, W., Opoku, A., Agyekum, K., Oppon, J. A., Ahmed, V., Chen, C., & Lok, K. L. (2021). The critical role of the construction industry in achieving the sustainable development goals (Sdgs): Delivering projects for the common good. Sustainability (Switzerland), 13(16). https://doi.org/10.3390/su13169112 Proceedings of the 2025 ASEE Gulf-Southwest Annual Conference The
both the National Science Education Standards34 and the Massachusetts Science and Technology/Engineering Curriculum Framework.35Table 3. Emergent Curriculum Development Principles Principle Description A. Materials First Provide opportunity to learn how to use LEGO construction materials before the science unit begins. B. Challenge Second Present the grand engineering design challenge at the very beginning of the science unit. C. Science Inquiry as Use scientific investigations of student-constructed artifacts as the “research” for the Design Research planning, building, and testing of
Manufacturing Engineer from Society of Manufacturing Engineers. Dr. Tseng’s research area cover emergency management, systems engineering, computational intelligence/data analytics and cyber engineering technology. Over the years, he has served more than 10 million dollars as principle investigators sponsored by NSF, NIST, USDT, DoEd, KSEF and industry like LMCO, GM and Tyco Inc. Dr. Tseng delivered research results to many refereed jour- nals such as IEEE Transactions, IIE Transactions, International Journal of Production Research, Journal of Manufacturing Systems, Expert Systems with Applications and other conferences (over 260 refereed publications). He is currently serving as an editor of Journal of Computer Standards
adequately address modern engineering problems, engineers must generatesolutions that attend to stakeholders, context, and impacts across scales, in addition to beingtechnically sound [1],[2]. Thus, engineering is fundamentally a technical and social discipline[3], [4], [5]. Socially engaged engineering skills include those needed to gather environmental,economic and stakeholder information and use it, combined with an understanding ofpersonal/professional identity and team dynamics, to holistically serve clients and societythrough engineering work [16]. Socially engaged engineering skills are vital for the future ofengineering and they are recognized as just as necessary as traditional technical skills of the field[6], [7], [8]. Despite the
experience.The paper summarizes both the advantages and disadvantages of the classroom flip from theinstructor’s perspective.IntroductionThe current challenge facing engineering educators goes well beyond conveying technicalinformation core to the discipline. While information transfer remains a part of the task, theneed to develop creative and innovative thinkers ready to engage in the challenging professionalmarketplace evolving due to “globalization, sustainability requirements, emerging technologies,and increased complexity”1 is paramount.Instructors must then consider the most effective classroom approach not only to transmittechnical subject matter, but also to foster creative and inquisitive minds that can somedayresearch complex problems and
, which helped distinguish the high-level technical and non-technical professional skills students need for certification. The second section explains how theframework was developed from the literature discussed in the literature review section (hence,there are results only) and includes an overview of the framework. The third section applies theframework to two examples of professional skills, including the background literature: teamworkand lifelong learning. The fourth and final section applies the framework to some initial areas inthe technical area of Radiation Hardened Technologies.3.1 Workforce NeedsA workforce needs assessment was conducted as part of the larger workforce developmentproject [17]. This workforce needs assessment informed
student studying Civil and Environmental Engineering at Virginia Tech. Her re- search interests include sustainable drinking water and wastewater treatment, fate and transport of emerg- ing microbial contaminants, and water quality in distribution systems.Mohammed Seyam, Virginia Tech Mohammed Seyam is a Computer Science doctoral candidate in the College of Engineering at Virginia Tech. He received his Bachelor’s degree in Information Systems from Mansoura University and his Mas- ter’s degree in Information Systems from Cairo University, both in Egypt. His work is focused on Soft- ware Engineering, Computer Science Education, Usability Research, and Mobile Software Development. Seyam served as the 2015-16 Graduate
engineering as a career and academic choice. Journal of Professional Issues in Engineering Education & Practice, 135(3) 3. Iskander T., Gore P., Bergerson A., Furse, C. (2012). Gender disparity in engineering: Results and analysis from school counselors survey and national vignette. Antennas and Propagation Society International Symposium (APSURSI), 2012 IEEE. 1,2,8-14. 4. Weber, K., (2011). Role models and informal STEM-related activities positively impact female interest Page 26.611.13 in STEM. Technology & Engineering Teacher, 71(3)5. Kekelis L., Joyce J., (2014
Paper ID #35924Using Discourse Analysis to Investigate Conversations during EngineeringBrainstorming ActivitiesDr. Benjamin David Lutz, California Polytechnic State University, San Luis Obispo Ben Lutz is an Assistant Professor of Mechanical Engineering Design at Cal Poly San Luis Obispo. He is the leader of the Critical Research in Engineering and Technology Education (CREATE) group at Cal Poly. His research interests include critical pedagogies; efforts for diversity, equity, and inclusion in engineering, engineering design theory and practice; conceptual change and understanding; and school- to-work transitions for new
andinformal methods to revise curricula that focuses on the professional formation of engineers(Downey, 2014). One area of competence where students might benefit substantially pertains totheir development of what administrators refer to as “professional” skills. This sentiment is alsoendorsed by a variety of corporate stakeholders across the engineering industry. For example,Dianne Chong, vice president of engineering, operations, and technology at the BoeingCompany, expressed that while “most schools are doing an excellent job producing the technicalskills that we need… employers want more than that” (Benderly, 2015). Therefore, our goal is tohelp students develop these additional skills desired by employers.In addition to the work already being
, pharmaceutical safety at a world class research facility in Seattle, and specialized in radiation safety, and emergency response as the lead inspector of medical and research facilities using radioactive materials in Washington State and the Public Information Officer at the state EOC during radiological emergencies. She has also worked as an independent fatality investigator, serving various clients in 36 states and 6 countries. She has a Masters in Safety Science from Embry Riddle Aeronautical University and is currently working towards a Ph.D. in Industrial and Organizational Psychology and Human Factors.Dr. David Wesley Martin, Central Washington University Dr. David W. Martin is a Certified Professional Constructor with
concomitant, linked closelyin both the workplace and in academic settings. For example, students are frequently assigned towork in teams where the negotiation of workloads, tasks and exchange of information requiresextensive interpersonal communication. Moreover, team projects often include writtendeliverables and verbal presentation components to faculty mentors or industry sponsors.Effective verbal and written reports require not just a combining of individual components, butthe construction of a cohesive presentation by the entire team. Teamwork and communication arethus inseparable in many engineering contexts.In this paper, we report findings about teaching practices from the qualitative phase of the study,which consisted of 50 in-depth
and industry Research programs that facilitate learning 3.84 3.67 3.73 3.82 3.83 3.74 3.88 3.87 3.83 3.90 3.80 about and engaging with research Mentorship programs that foster 3.59 3.43 3.47 3.54 3.58 3.63 3.49 3.62 3.55 3.80 3.48 connections and provide guidance Workshops that provide information about 3.58 3.44 3.27 3.48 3.74 3.46 3.57 3.63 3.55 3.56 3.56 relevant topics Social programs that are fun and promote 3.22 3.23 3.00 3.16 3.34 3.22 3.22 3.41 3.19 3.13 3.26
) insummer 2022. The objective of this SBP is to increase academic motivation of the studentparticipants, and increase retention using high impact design activities. The program enrolledunderclassmen from the TAMUK COE and potential engineering transfer students fromnearby community colleges and universities. Extracurricular Bridging Programs identified asa student success strategy by other engineering colleges served as an impetus for the SBP in anNSF IUSE grant [1-3]. The intent of this paper is to share the results of the third annual SBPin the NSF IUSE grant implemented at TAMUK, and to inform and solicit feedback fromother undergraduate engineering education experts. Since this edition of the SBP wasconducted in a hybrid mode, while the
Competitions, Proceedings, Society for Information Technology & Teacher Education International Conference Chesapeake, VA, p.3626-3630 (2005).
University and her Ph.D. in Education from the University of Colorado, Boulder. Her research interests are in the areas of girls’ and women’s identities in STEM fields, engineering and computer science in K-12 education, and iteration.Dr. Sarah Hug, University of Colorado, Boulder Dr. Sarah Hug is Research Associate at the Alliance for Technology, Learning, and Society (ATLAS) Institute, University of Colorado at Boulder. Dr. Hug earned her PhD in Educational Psychology at the University of Colorado, Boulder. Her research and evaluation efforts focus on learning science, tech- nology, engineering, and mathematics, with a special interest in communities of practice, creativity, and experiences of underrepresented groups in
without regard to geography, distance or, in the near future, even language.” Coincidently,three billion additional people from China, India, Russia, Eastern Europe, Latin America andCentral Asia suddenly had access to technology and information that until recently had been thesole purview of highly developed countries. Hence, one of our challenges as engineeringeducators is how best to take advantage of this convergence to improve engineering education,and, as Friedman, and others have proposed, enable the US to retain its lead in innovation anduniversity education and research.We propose that the innovative, integrated undergraduate and graduate education and researchprograms discussed above are one such mechanism for doing this, enabling our
student groups even when they are within the sameorganizational unit. Considering the fact that the building construction projects include activeand continuous collaboration of all of these parties, learning multi-disciplinary strategies is anecessary acumen with which students must graduate in preparation for professional practice.New technologies and project development approaches such as building information modeling isare necessitating early and extensive collaboration among the professions. Integrated projectdelivery methods are maximizing this need for interdisciplinary team production. Feedback fromindustry representatives and practicing professionals unanimously supports the concept ofintegration. This paper describes an effort to
Paper ID #5957Turning STEM into STEAMProf. Chris Robinson, University of South Carolina Chris Robinson is a University of South Carolina Professor of Art and member of the nanoCenter whose work mediates the complexity of contemporary science and technology and seeks cross-disciplinary rela- tionships between art and science. He specializes in 3D imaging and installations with mediums ranging from laser light to experiential performance and was one if the early pioneers of the visual arts role in zero gravity and space exploration, training in the General Dynamics F-16 and NASA’s Zero Gravity aircraft, the