course that facilitated your development of _____. c. Were any other courses or experiences in college impactful for you in developing ______?11. Has this course had any effect on your future life, goals, or career?12. What was your main takeaway from this course/experience?
educational institutions to incorporate this technology intotheir curriculum. This ensures that students are adequately prepared with the skills and knowledgeneeded for future career opportunities. One crucial task is to teach students how to use moderntechnology to evaluate the quality of AM parts because AM has not reached the point of competingwith traditional manufacturing in terms of surface finish and repeatability. Moreover, the printedparts are often treated as black boxes with invisible defects, such as pores and cracks. Such non-transparency significantly challenges the qualification and certification of additively manufacturedparts. In this paper, we present a semester-long project designed for a new AM course offered atUniversity A to
9 Black 5 2 1 Hispanic/Latino 2 4 2Limitations and Future workTracking long-term enrollment outcomes post-participation is a future focus, necessitating longerstudies and collaboration with more institutions. Assessment of the program's impact on students'academic and career choices through follow-up surveys or interviews is vital, however, ensuringscalability and replicability across diverse educational settings requires refining the program'smaterials and implementation strategies. The team is planning to employ a more comprehensiveevaluation methods such as pre- and post-program assessments and
that contribute to the opportunity to attend STEM high schools across the United States." Education and Urban Society, vol. 46, no. 6, pp. 716-737, 2014.[6] L. C. Landivar, "Disparities in STEM employment by sex, race, and Hispanic origin." Education Review, vol. 29, no. 6, pp. 911-922, 2013.[7] L. Andersen and T. J. Ward. "Expectancy‐value models for the STEM persistence plans of ninth‐ grade, high‐ability students: A comparison between Black, Hispanic, and White students." Science Education, vol. 98, no. 2, pp. 216-242, 2014.[8] J. J. Gottlieb. "STEM career aspirations in Black, Hispanic, and White ninth‐grade students." Journal of Research in Science Teaching, vol. 55, no. 10, pp. 1365-1392, 2018
Campus Sustainability: A LEED-Based Case StudyAbstractNorthern Kentucky University is committed to being a student-centered institution, prioritizing thewell-being and learning experience of our students. Therefore, it is essential to measure thesustainability level of the campus. The goal is not only to enhance the students' experience but alsoto create an eco-friendly environment that nurtures the health and productivity of faculty and staff.It provides valuable learning experiences, specifically for construction management students,while empowering them to carry firsthand sustainable practices into their careers, therebycontributing to a more sustainable future.Utilizing the Leadership in Energy and Environmental Design (LEED) criteria, a
technology in Lean Systems Engineering Technologycourses at the University of Kentucky as a means to facilitate student learning of continuousimprovement applications within manufacturing. The application of continuous improvementtechniques is a core competency for engineering students interested in a career in manufacturing.Employers place a high value on these skills with the aim of optimizing product quality andprocess efficiency in order to remain competitive in the global marketplace. In this paper, theauthors will discuss the design, implementation, and student feedback of a VR-based educationalmodule developed to immerse engineering students in a virtual manufacturing environment. Inthis VR environment, students will engage in hands-on
, doi: 10.1111/j.1744- 6570.1988.tb00632.x[3] D. Jackson, J. Fleming, and A. Rowe, “Enabling the Transfer of Skills and Knowledge across Classroom and Work Contexts,” Vocations and Learning, vol. 12, pp. 459-478, Mar. 2019, doi: 10.1007/s12186-019-09224-1[4] L.A. Perry, and J.S. London, “The Transfer of Learning Between School and Work: A New Stance in the Debate About Engineering Graduates’ Preparedness for Career Success abstract Paper,” in 2021 ASEE Virtual Annual Conference Content Access, Jul. 2021. [Online]. Available: https://peer.asee.org/37899[5] M. Taguma, E. Feron, and M.H. Lim, “A Literature Summary for Research on the Transfer of Learning,” in Future of Education and Skills 2030
/nanofabrication. His current research focus is on miniaturized environmental sensors and sample handling devices. He earned his Ph.D. in Electrical Engineering from the University of Cincinnati in 2002. He worked as Research Engineer at Korea Electronics Technology Institute (KETI) from 1993 to 1997. He received the NSF CAREER award in 2004 and was given the WCU (World Class University) Visiting Professorship under the Ministry of Education, Science and Technology, Korea in 2009. He is currently leading the NSF-supported HSI IUSE (Improving Undergraduate STEM Education) Project: Enhancing Student Success in Engineering Curriculum through Active e-Learning and High Impact Teaching Practices (ESSEnCe). In this project, a team of
this is a tool students can use to collect data. The inclusion of the cellphonemechanism removes the need for a built-in camera, but it also adds an extra but simplecommitment for the students to complete the activity. The tests and worksheets will be used toask students about concepts like microfluidics and reaction kinetics to address theirunderstanding of these subjects. In addition, students will create a calibration curve usingspectrometry, something they may need to do in the future should they choose a career thatinvolves chemical analyses. ACKNOWLEDGEMENTS We acknowledge NSF support through IUSE #1821578. We are grateful for insights onfabrication from Maynard Siev, director of the Frank Innovation Zone at WSU.References
-dimensionalapproach to STEM instruction described by the NGSS [4], [9]. Engineering education allowsstudents to authentically apply content related to real-world phenomena so they can understandhow the intertwined nature of science and engineering addresses the community and globalissues they are facing today. Engineering education better prepares students to think critically,make decisions, and pursue STEM careers and educational trajectories. Yet many teachers,particularly in elementary grades, lack sufficient professional development and self-efficacy toinclude engineering in their curricula and embed it in meaningful ways that connect to students’lives and communities. This phenomenon is augmented along gender, geographic, andsocioeconomic lines [10-13
research focuses on empowering engineering education scholars to be more effective at impacting transformational change in engineering and developing educational experiences that consider epistemic thinking. She develops and uses innovative research methods that allow for deep investigations of constructs such as epistemic thinking, identity, and agency. Dr. Faber has a B.S. in Bioengineering and a Ph.D. in Engineering and Science Education from Clemson University and a M.S. in Biomedical Engineering from Cornell University. Among other awards for her research, she was awarded a National Science Foundation CAREER Award in 2022 to study epistemic negotiations on interdisciplinary engineering education research
and credibility. They should justify their part of their career path rankings, emphasizing the importance of credible information in decision-making195196 To nurture critical thinking skills throughout the course, we have designed class activities and197 assessments that not only assess comprehension but also encourage students to interrogate the198 rationale behind their learning. By prompting students to question, analyze, and evaluate concepts199 independently, these assignments serve as catalysts for the development of robust critical thinking200 skills. Our aim is to guide them in forming
PS5 1 Sense of Community, Self-Efficacy of Engineering Students, Grade Point Average 2 3 (Overall and Gateway 8), 4 Success Measures (Various), 5 Program SatisfactionThe Engineering Self-Efficacy survey (Frantz, Siller & Demiranda, 2011) measures students’judgments concerning their academic performance in engineering courses and an engineeringprogram, their expectations about an engineering career, and their persistence in pursuing anengineering education. In addition, at the end of each academic year, students participated in afocus group to discuss their personal experiences in the program and offer suggestions forchange
energy today provides about 9% of the world’s energy and8 to 10% of the U.S. needs [4]. However, in many parts of the world, these percentages are increasingsignificantly. Based on current data on global warming, as well as the current U.S. dependence onoverseas oil, there is an interest and urgency in utilizing alternative energy sources [5].In order to prepare students for their future careers, real-world training is imperative for their education.University campuses in the United States are taking important steps to establish alternative energyresearch and education [5]. For example, undergraduate engineering and engineering technologyprograms are now including laboratory-based curriculum in alternative energy [5]. Hands-on
summer and fall of 2023. Research participants were remindedabout confidentiality and the goal to leverage underrepresented students’ voices to reassure themand encourage candid responses. Two interviews were fully conducted in Spanish to supportstudents’ preferences. A 13-question protocol guided the interviews. Interview topics includedstudents’ background information; STEM knowledge and skills; STEM curricular experiences;knowledge and perceptions of career opportunities, campus support services, and campuspolicies; and perceived sense of belonging. Interviews were audio recorded, and notes/memoswere typed after each interview. Interviews lasted 31 to 112 minutes (average 57 minutes). The sample included 23 male students (56%) and 18
, IT Essential II) MCSA and MCSE certifications, making him officially Microsoft certified. Engaging Online Learners Grant Writing with Farmingdale Qualtrics CircleIn Application and Software Professor Eltaeib has been invited as a Judge for Poster Presentations and is part of the IESC 2021 Organizing Committee: International Energy & Sustainability Conference 2021 (IESC 2021). This honor is a feather in his cap, acknowledging his skill and mastery of the subject and provides exposure to the broader academic community, not only for himself but also his department and school. He enhanced his career whilst studying by working in the private sector as a software developer in several companies and the Enterprise
increased confidence inindustry readiness. From the various questions asked to the students, the responses will help to drive theapplication and angle of the framework. For instance, if it is found that a particular group ofstudents have a low confidence in a development area of interest, the framework can be moldedto better provide resources to that group for aiding in their development. In terms of workforcedevelopment, this could include high level information for first year students from a businesslevel perspective, and then narrowing down to a more detailed representation view for graduatingseniors looking for a job or a student with more detailed career plans. This framework is being developed from systems engineering principles
Paper ID #43375Board 426: Work in Progress: Real-Time Ecological Momentary Assessmentof Students’ Emotional State in StaticsDr. Diana Arboleda, University of Miami Diana Arboleda, PhD, is a civil engineering Lecturer at the University of Miami, Florida. She received her B.S. in Computer Engineering from the University of Miami in 1988 and after a full career as a software engineer in corporate America she returned to earn a Ph.D. in Civil Engineering. Her research interests are in engineering education.Dr. James Giancaspro P.E., University of Miami James Giancaspro, Ph.D., P.E. is an associate professor of civil
project-oriented course orprogram. The map was developed specifically for our design program, and it is our expectationthat other programs may wish to adapt the map for their own processes.References[1] National Academy of Engineering, Educating the Engineering of 2020: Adapting Engineering Education to the New Century. Washington, DC; The National Academies Press, 2005. https://doi.org/10.17226/11338[2] J. Rohde et al., "Design Experiences, Engineering Identity, and Belongingness in Early Career Electrical and Computer Engineering Students," in IEEE Transactions on Education, Vol. 62, No. 3, pp. 165-172, Aug. 2019, doi: 10.1109/TE.2019.2913356.[3] T. Ju & J. Zhu, “Exploring senior engineering students’ engineering
current ethics curriculum is effectively fostering moral reasoning development or if the EERImight be insufficient in capturing the subtleties of students' situated understanding and ability toreason and act ethically in authentic scenarios. In response to these findings, we broadened thescope of our study to encompass the full duration of students’ undergraduate careers. Thisexpansion was driven by the hypothesis that a single semester of ethics education within thecurriculum might not be sufficient to effect significant changes in students’ ethical reasoning.However, we speculated that over the entirety of their undergraduate experience, a more notablechange in their ethical reasoning might become evident. The details of the study can be found
overwhelmed with information at the beginning of the RET to seeing connections totheir classrooms. A greater mastery of the material led to enough understanding to create lessonstailored to their students. For example, early in the RET experience, teachers in rural schoolcommunities where agriculture is centrally important culturally and economically brainstormedways to engage students in understanding how the semiconductor industry has impactedagricultural technology. Other teachers took it upon themselves to find career statistics so theycould talk with their students about exactly what semiconductor jobs would be available to themin our state with various levels and types of post high school education. The teachers’ effortsduring the first five
college enrollment. Educational Researcher, vol. 50, no. 9, pp. 595–606, DOI: 10.3102/0013189X2110275286. Matusovich, H. M., Carrico, C. A., Paretti, M. C., & Boynton, M. A. (2017). Engineering as a career choice in rural Appalachia: Sparking and sustaining interest, International Journal of Engineering Education, vol. 33, no. 1B, pp. 463-475.7. Shamah, D., & MacTavish, K.A. (2009). Rural research brief: Making room for place-based knowledge in rural classrooms. The Rural Educator, 30 (2), 1-4.8. Bartholomaeus, P. (2006). Some rural examples of place-based education. International Education Journal, 7 (4), 480-489.9. Bielefeldt, A.R., & Rulifson, G. (2018). Environmental considerations in engineering: students’ goals
brief social-belonging intervention improves academic and health outcomes of minority students," Science, vol. 331, no. 6023, pp. 1447-1451, 2011.[12] M. M. Chemers, E. L. Zurbriggen, M. Syed, B. K. Goza, and S. Bearman, "The role of efficacy and identity in science career commitment among underrepresented minority students," Journal of Social Issues, vol. 67, no. 3, pp. 469-491, 2011.[13] S. M. Aguilar et al., "Research productivity of East Asian scientists: Does cosmopolitanism in professional networking, research collaboration, and scientific conference attendance matter," Asia-Pacific Social Science Review, vol. 13, no. 2, pp. 41-62, 2013
Fluid Dynamicscourse, and even those who have taken a fluid power course may not have any hands-onexperience designing, testing, or controlling pneumatic circuits. However, there is a wealth ofinteresting and challenging design projects involving pneumatic circuits that can lead torewarding careers in automation and controls. If left unfilled, this gap between student skill setsand project requirements will significantly limit what students can achieve on a design projectand may prevent students from working on these types of projects altogether. This paperdescribes the development of a pneumatic breadboard and associated “sandbox” for students in amechanical engineering capstone design course. The pneumatic breadboard, similar to anelectronic
sent in Fall 2023 to students in their current second year andbeyond as an initial assessment of academic experience and factors included course content,workload, stress, engineering identity, graduate attributes, and more. This survey will berepeated in the summer of 2024 to determine continual improvement measures and to assess anyadditional modifications that may be needed within the curriculum redesign. An initial review ofthe survey feedback (n=74) showed that students who went through the new curriculum are morelikely to agree or strongly agree that the course content has been valuable and relevant to theirfuture careers. Table 1 shows a comparison between students who began their softwareengineering studies prior to Fall 2022, and those
languages due to its widespread use globally. In theUSA, the engineering disciplines use language as a major means of communication [1] . Becauseof engineers' heavy usage of English, engineering students studying in the United States whowish to pursue their careers in the USA must have a strong grasp of the language in both oral andwritten form [1] .However, engineering students from countries that do not have English as their primary languageoften struggle to comprehend or use English effectively in their work [1][2][3]. One of theproblems with students not being able to use English fluently is that when writing in English,engineering students fail to effectively and accurately utilize sentence structures [4]. The use ofthe English language is a
or in any one ofseveral elective courses the student would enroll in. Programs themselves were also responsiblefor designating a location within the curriculum whereby each item would be assessed as well.Program assessments tend to fall toward the end of a student’s academic career, and many cases,this assessment was handled in one of the capstone courses.Computer ScienceGraduates of the MSOE Computer Science program will have an ability to: 1. Analyze a complex computing problem and apply principles of computing and other relevant disciplines to identify solutions. 2. Design, implement, and evaluate a computing-based solution to meet a given set of computing requirements in the context of the program’s discipline. 3
meet-and-greet eventbetween students and BAE200 faculty member was a key activity that contributed to helpingstudents select a degree concentration and think about career opportunities.References[1] A. Baker et al., “Preparing the Acquisition Workforce: A Digital Engineering Competency Framework,” in 2020 IEEE International Systems Conference (SysCon), Montreal, QC, Canada: IEEE, Aug. 2020, pp. 1–6. doi: 10.1109/SysCon47679.2020.9275661.[2] R. Mansbach et al., “Reforming an undergraduate materials science curriculum with computational modules,” Journal of Materials Education, vol. 38, no. 3–4, pp. 161–174, 2016.[3] D. Ahmed, M. Nayeemuddin, T. Ayadat, and A. Asiz, “Computing Competency for Civil Engineering Graduates: Recent
address a sizable demand forcomputer programmers in the workforce [3], [4]. Particularly, the US Bureau of Labor Statistics[5] anticipates a 15% increase in computer science related careers, but a 10% decrease in thecomputing workforce. One potential factor in this predicted decrease could be that high schoolstudents lack exposure to computer science as upward of 89% of high school science teachersnever include computer science in their teaching [6]. To expose high school students tocomputing, future iterations of the NGSS should integrate computer science standards that alignwith computing skills needed to enter college computer science programs. Furthermore, STEMhigh school teachers need supportive programs and partnerships to bring computer
with askill set that allows them to succeed in computing careers. The Computer Science degree at UVUis accredited by Computing Accreditation Commission of the Accreditation Board forEngineering and Technology (ABET). Currently, the Computer Science Department has morethan 1300 students. The Engineering programs at UVU are accredited by EngineeringAccreditation Commission of the Accreditation Board for Engineering and Technology.Computer Engineering Program’s Capstone CourseOur CE capstone course is structured as a collection of independent student projects. This courseis offered every semester. Usually, the students in the Computer Engineering program take thiscourse during their last semester. Students either can come up with an embedded