learning into STEM curricula [8], [9] [10].The development of global identity and intercultural competence is particularly crucial for first-year university students [11]. The transition to higher education presents a unique opportunity forstudents to expand their worldviews and develop skills necessary for global citizenship [12],[13]. Early exposure to diverse perspectives and global issues can set the foundation for ongoingintercultural learning throughout their academic careers and beyond [3].1.2 Factors Influencing Global Identity Development in Higher EducationResearch has shown that global identity development can vary based on demographic factors,including gender. Several studies have found gender differences in various aspects
Women in Early Engineering Courses,” in 2024 ASEE Annual Conference & Exposition Proceedings, Portland, Oregon: ASEE Conferences, Jun. 2024, pp. 47–73. doi: 10.18260/1-2--47973.[7] Keen Foundation, “Entrepreneurial Mindset | Equipping Engineering Students to Excel,” Engineering Unleashed. Accessed: Jan. 23, 2025. [Online]. Available: https://engineeringunleashed.com/mindset[8] D. Rae and D. E. Melton, “Developing an entrepreneurial mindset in US engineering education: an international view of the KEEN project,” 2017. [Online]. Available: https://api.semanticscholar.org/CorpusID:157413269[9] Z. Fuqua, “The Value of a Co-op and What Does That Even Mean?,” Career and Co-op Office | Stanley and Karen Pigman College
as a writer? And (2) Who do you want to be as a writer?” [6] He continues: “Ninety percent of the responses focus on how good students think they are at writing. Almost no one talks about what they want to say, the types of writing they’re interested in, or what kind of writing they may have to do in the future. They do not recall a favorite example of their writing. Very few express ever having enjoyed any act of writing. Often, it seems like they barely understand the questions, because they have no self-concept of themselves as writers.” [6]It is wishful thinking to assume that there is a future where every undergraduate student is aspassionate about writing as those who have defined their careers by
. from Grambling State University, M.S. C.S. from North Carolina A&T State University and a Ph.D. C.S. from Virginia Tech. Seals conducts research in Human Computer Interaction with an emphasis in visual programming of educational simulations, user interface design & evaluation, and educational gaming technologies. Dr. Seals also works with computing outreach initiatives to improve CS education at all levels by a focused approach to increase the computing pipeline by getting students interested in STEM disciplines and future technology careers. One of these initiatives is the STARS Alliance (starsalliance.org) with programs in K-12 outreach, community service, student leadership and computing diversity
the study’s authors.References[1] J.P. Martin, K.S. Stefl, L. W. Cain, and A. L. Pfirman, "Understanding first-generationundergraduate engineering students’ entry and persistence through social capitaltheory." International Journal of STEM Education vol. 7, pp. 1-22, 2020.[2] M.N. Miriti, "The elephant in the room: race and STEM diversity," BioScience vol. 70, no. 3,237-242, 2020.[3] B.P. Koester, G. Grom, and T.A. McKay, "Patterns of gendered performance difference inintroductory STEM courses." arXiv preprint arXiv:1608.07565, 2016 [Accessed August 15,2024].[4] A. Malespina and C. Singh, "Gender gaps in grades versus grade penalties: Why gradeanomalies may be more detrimental for women aspiring for careers in biologicalsciences
in engineeringprograms, an example of this is mentioned by Rojas Mesa et al., when they presented theresults of a study conducted at the National University of Colombia, based in Bogota, andnoted that 72.35% of the students of the engineering faculty withdrew between the first andfourth semester of their career [7].MethodologyTo identify which characteristics of STEM experiences are developed in educationalinstitutions, a critical literature review [7] of experiences or research in the STEM area wasconducted. For this purpose, this review unified the search based on three major criteria forour search algorithm: (a) using keywords in English and Spanish such as STEM, education,and schools; (b) ranging the search period within the last seven
FrameworkWhile there is no one definition of Computational Thinking and its components that is generallyaccepted across all disciplines and contexts [5], it is generally agreed that CT practices arevaluable not only for those interested in careers related to computing but also for everyoneengaging with the ubiquitous computing of modern society. The K-12 Computing ScienceFramework [6], a joint work by computer science education organizations including ACM,Code.org, and CSTA, highlights that while computer science offers “unique opportunities fordeveloping computational thinking,” CT practices are also “explicitly [...] and implicity”referenced in the standards frameworks of other disciplines, such as math and science.Simultaneously, various education
program, which has a greater enrollment of undergraduates. Likewise,there is a higher number of freshmen (Fr, n=50) in comparison to sophomores (So, (n=18),juniors (Jr, n=5), and seniors (Sr, n=4). This imbalance in class size could be attributed to severalthings, such as students' progress through their academic careers, specialization, and otheracademic commitments, which may reduce participation in such surveys or courses.Additionally, some students may drop the program or switch majors as they progress, reducingthe number of upperclassmen. Furthermore, this undergraduate program is new, which mayexplain the higher number of freshmen participants compared to upper-level students.Innovation Self-Efficacy The ISE survey results
project-based methodology, creates a model that can be replicated at other institutions beyond UW and SIT. This can expand opportunities for students globally, enabling them to engage with cutting-edge robotics education and gain skills necessary for future careers in robotics. 6. Boosting Innovation in Robotics: Exposure to cutting-edge robotics research, including the use of ROS 2, Turtlebot3 robots, and multimodal sensors, places students at the forefront of technological innovation. The course encouraged creativity and innovation as students work together to develop solutions that are user-centered and applicable to real-world challenges. 7. Contributing to Global Robotics Leadership: By equipping students
political systems value it positively for aligning these values with economic development based onproductivity and efficiency. Accordingly, it has caused high technological development but also a cultureof disengagement where engineers self-consider aliens to the socio-political context (Cech, 2013). On the contrary, arts, humanities, and social sciences have been charged with the stereotype ofbeing costly and inefficient, and their aims are usually not seen as clear or valuable. This phenomenon isusually evidenced in nations that value economic progress or link it to social development, which havefocused on solving society’s problems through mostly engineering-related projects, developing strongengineering career paths, and overlooking
substantial energyconsumption associated with large language models, driven by extensive computationalresources, poses environmental challenges. For instance, data centers powering AI toolscontribute significantly to carbon emissions, highlighting the need for responsible use withineducational and professional contexts [26].To address concerns about AI integration, institutions should focus not only on academicintegrity but also on promoting AI literacy. This includes discussions on sustainability, long-term professional responsibilities, energy efficiency, ethical AI use in decision-making, andbalancing automation with human expertise. Such initiatives can better prepare engineeringstudents for responsible AI adoption in their future careers
, and implementation of projectactivities.Teaching Innovation Project: Application to Industry Team members within these project teams also discussed the project’s relevance toindustry. Consistent with departmental goals, one of the goals of the grant is to ensure thatMEEN undergraduate students are effectively prepared for engineering industry careers. Thistheme is apparent in treated team members’ discussion around the construction of homeworkproblems and exam questions. These assignments were developed with the intention to preparestudents to be innovative when solving potential applied engineering problems that they mayencounter in an industry setting. Other project activities, such as instructional videos, also aimedto develop
critiques and contextually relevantobservations. Another limitation of our study is its focus on a single cohort of first-year students,which may not capture the full spectrum of perspectives across different educational stages.Future research should consider longitudinal studies to assess how students’ perceptions evolvethroughout their academic careers. Future research could also be conducted to determine thelasting impacts these educational innovations have on student retention and choices of career.Additionally, seeing how integrating FWV works in different education settings and withdifferent types of students could be greatly enlightening to their application. Through theseinstructional innovations, creativity, interdisciplinary thinking, and
by AI has made AI literacy a crucial competency forindividual development, turning its cultivation into a “human issue [3].” This need isparticularly urgent for higher education students [4], as industries worldwide require top talentswith AI literacy to drive the intelligent transformation of business processes and products,while making trustworthy and ethical decisions [5]. In response, students are calling for AIliteracy to be integrated into their higher education curricula to better prepare for the challengesof the intelligent era and future careers. For instance, a survey on the use of generative AIamong undergraduates [6], found that students most commonly recommended offering relevantcourses and lectures, with a particular focus on
Recycling 9 style, font-size, color Dream Vacation 10 link, border-style, background–color Music Playlist 11 border-color, border-width, height/width units, color units Morning Routine 12 Learning Check 3 Historical Event 13 padding, margin Future Career 14 div, width, height, Favorite TV Show 15 section, article, classes Ideal Weather 16 Learning Check 4 Favorite
]. Equally important isthe acknowledgement that many ventures result in failure. Learning through failure is anextremely important part of entrepreneurial education and a lesson that can help studentsthroughout their career. Learning from what works and does not work in startup companies andtechnology transfer can be a key part of the process [12], [13]. Many of these topics andtechniques are already embedded in civil engineering courses such as learning through failure,looking at design options, and considering social and economic impacts of designs.There are numerous methods of incorporating new topics into curriculum including addingmaterial to individual classes, creating new programs and certificates, and developing newmajors [14]. With a topic
. William Patrick Burke, Florida Gulf Coast University William Burke is a career educator and lab coordinator at Florida Gulf Coast University. He specializes in education, jobsite safety and equipment maintenance. ©American Society for Engineering Education, 2025 Developing Hands-on Physical Model Labs for Structures in Construction CoursesAbstractConstruction mechanics and structures in construction courses are widely recognized aschallenging subjects for construction engineering and management students. Funded by a grantfrom the Collier Building Industry Association and Collier Building Industry Foundation, thisstudy explores the process of developing and
scientificand engineering practices (SEP) as core components of student learning (NGSS Lead States,2013). These practices include critical thinking, problem-solving, and the application ofengineering principles, all of which are crucial for preparing students for future careers and forenhancing their ability to engage with the world around them. However, despite these broadmandates, there remains a striking lack of research on how students with ID and ESN, who mayneed pervasive and ongoing support in academic and daily living activities, engage withengineering practices. This gap in both research and instructional practice leaves many studentswith disabilities excluded from fully participating in engineering learning opportunities.Current State of
student wished the course was over two semesters, and (4) What are otherthing(s) you would prefer/like to change about the way the course has been taught? What wouldyou like the instructor to do differently? Additional comments/concerns/suggestions/compliments,etc.” One student wished for longer class time, two hours dedicated to each lesson, and addingsteps to troubleshoot the code with respect to common errors. Based on the students’ response, itwould be essential to hire a TA and/or a Learning Assistant (LA) in this course.ConclusionsEnvironmental data science is an emerging field that encompasses several STEM domains andoffers exciting career prospects in a wide range of engineering applications. This paper presentsthe unique components of a
Paper ID #47147Documenting takes on recycling, honing rapid ethnographic skills: Transdisciplinarygraduate student explorations in a rural U.S. southwestern campus communityProf. Ari Sherris, Texas A&M University-Kingsville Ari is a tenured mid-career Professor of Bilingual Education. During the 2015-2016 academic year, he was a J. William Fulbright Scholar at the University of Education, Winneba, Ghana. During June 2019, Ari was a distinguished guest researcher at the University of South Africa. He holds a PhD in Second Language Development, an MA in Applied Linguistics, and a BA in the Humanities. He is certified
received the National Science Foundation Faculty Early Career Development Award in 2010. He received the Best Manipulation Paper Award at the IEEE International Conference on Robotics and Automation in 2012. He has also received numerous teaching awards, including the Collins Award for Innovative Teaching (2015), the Rose Award for Teaching Excellence (2016), the William L. Everitt Award (2016), the College of Engineering Teaching Excellence Award (2018), and the Campus Award for Excellence in Undergraduate Teaching (2018), all from the University of Illinois. He was named a Rose Education Innovation Fellow in 2017, and was named a Severns Faculty Scholar in 2021.Mr. Saadeddine Shehab, University of Illinois Urbana
specific regions or countries but is common acrossengineering programs globally [7], [9], [10], [11], indicating that it is an inherent issue withtraditional assessment methods. Despite these drawbacks, traditional exams remain thestandard evaluation tool in many academic disciplines, particularly in construction-relatedfields [12].Stress, however, is not just a result of knowledge gaps but can also occur when studentsknow the material but are overwhelmed by anxiety, preventing them from reasoning clearlyor applying their knowledge effectively [13]. This phenomenon is especially common inengineering programs, where exams begin early in students' academic careers and continuethroughout their studies, including postgraduate assessments [14
has been the recipient of several prestigious awards, including the University Distinguished Teaching Award (Individual Award) at the University of Hong Kong for the 2024-25 academic year, the University Outstanding Teaching Award (Individual Award) at the University of Hong Kong for the 2015-16 academic year, and the Faculty Outstanding Teaching Award (Individual Award) in the Faculty of Engineering for the 2023-24 and 2012-13 academic years. Additionally, he has been honoured with the Teaching Excellence Award in the Department of Computer Science for the academic years 2011-12, 2012-13, 2013-14, 2014-15, and 2015-16. Furthermore, he was a shortlisted candidate for the UGC Teaching Award (Early Career Faculty
traditionalparadigms across various fields, including education. As educators, we face a dual responsibility:to harness AI’s potential in our own careers and to prepare our students for theirs. The emergenceof Large Language Models (LLMs) like GPT-4 and Claude represents a significant leap in AIcapabilities, where most individuals in the first world can easily access these tools. These AItechnologies necessitate reevaluating our teaching methodologies, curriculum design, and theskills we impart to our students to ensure their readiness for this modern workforce [1].To effectively integrate AI into our educational frameworks and curricula, we must first establisha baseline understanding of how current AI technologies, particularly LLMs, perform within
score End-phase Reliability P5 Horizon Incentives Smart-contract clause cooperation rate8 Future Research Agenda1. Class-to-Career Tracking.Run follow-up surveys or brief exit interviews with graduates six and twelve months intoindustry placements. Ask a simple question set—“Did you recommend any trust-relatedsafeguard (e.g., rate-limit, stake-slashing) in real code reviews?”—to check whether PD-based lessons survive beyond the classroom. Even two cohorts will show whether the virtueswe claim to teach actually travel into practice.2. Lightweight Cross-Cultural Replication.Instead of large
, learning thresholds and mindfulness in science learning," International Journal of Mathematical Education in Science and Technology, vol. 44, no. 6, pp. 808-816, 2013, doi: 10.1080/0020739x.2013.800598.[70] D. Reeping et al., "Board #97: How are threshold concepts applied? A review of the literature," in ASEE Annual Conference, Columbus, OH, 2017.[71] J. Strobel, I. Hua, J. Fang, C. Harris, and L. Tracy, "Students’ attitudes and threshold concepts towards engineering as an environmental career: Research by participatory design of an educational game," in ASEE Annual Conference, Austin, TX, 2009.[72] J. L. Daugherty, R. K. Custer, and R. A. Dixon, "Mapping Concepts for Learning and Assessment," Technology
it by proving their competence and thus their gender will eventually becomeinsignificant [11–14]. This may be due to women adopting the professional culture ofengineering, characterized by meritocratic ideology and individualism [14].A recent mixed-methods study [4] addresses how the pressure to diversify has modifieddiscriminatory decision making in software engineering, an occupation still dominated by‘white’ men. The researchers expectedly find that ‘black’ men, ‘black’ women, and ‘white’women each face callback penalties relative to ‘white’ men when applying laterally to early-career positions. Nevertheless, among applicants to mid-level positions, ‘white’ women are –surprisingly – preferred. Weishaar and colleagues explain that ‘white
., Mosyjowski, E. A., Daly, S. R., & Lattuca, L. R. (2024). Leveraging a comprehensive systems thinking framework to analyze engineer complex problem‐ solving approaches. Journal of Engineering Education, 113(1), 53–74. https://doi.org/10.1002/jee.20565Duivenvoorden, E., Hartmann, T., Brinkhuijsen, M., & Hesselmans, T. (2021). Managing public space – A blind spot of urban planning and design. Cities, 109, 103032. https://doi.org/10.1016/j.cities.2020.103032Fouad, Nadya, Mary Fitzpatrick, and Jane P. Liu. 2011. “Persistence of Women in Engineering Careers: A Qualitative Study of Current and Former Female Engineers.” Journal of Women and Minorities in Science and Engineering, 17 (1): 69–96. https
students to interact with professionals in the audioengineering field. These experts included synth designers, musicians, and researchers. Forinstance, a researcher working at the intersection of AI and audio, delivered a presentation ontheir research. Additionally, an audio enthusiast and online content creator taught students howto create custom synthesizers. These presentations not only deepened students' understanding ofpotential career opportunities but also occasionally included information about open positions,providing tangible benefits to participants.Students enjoyed the hands-on nature of the workshop. For example, one student commented:“The hands-on tools were a good way to get people more involved with the synths”. Studentsalso