around), feeling the climate for oneself, money/tipping/haggling, etc., etc. affect greatly how one understands and interprets and in turn designs.In 2022, it was possible to offer an on-site field study course in South Africa. Students spent 7-8weeks on site, then returned to Sweden to finish their projects at their home institution. However,because there was another similar studio program at a local university in the South African site,students could continue collaborating virtually with these students after they returned. Reflectingon this change to the curriculum, one instructor explained: We kept a series of online workshops and meetings with stakeholders in South Africa as well as in Kenya and Bangladesh. The number and
learning. Her Ph.D is in Electrical Engineering with emphasis in the design and fabrication of laboratory apparatus and techniques for electro-thermal characterization of sustainable power systems as well as the design of learner-centered experiential curriculum. She is currently working to develop an inclusion-centered first-year engineering program in hands on design and problem-based learning to better support students as they enter the engineering fields. ©American Society for Engineering Education, 2025 Teaching Creative Design in Virtual Reality: A Course Designed and Taught by StudentsIntroductionThere’s an ancient Chinese idiom that states, “if there are three
integrating VR into mechanical engineeringtechnology education, with a particular emphasis on engineering materials courses [6-8]. Byleveraging the capabilities of VR, students are provided with an innovative platform to exploreboth microscopic and macroscopic structures of materials, bridging the gap between theoreticalknowledge and practical application [9,10]. To assess the effectiveness of this approach, anexperiment has been designed involving two groups of students. One group follows thetraditional learning pathway, relying on textbooks and theoretical materials to study atomicstructures. In contrast, the second group utilizes VR technology to engage with these structuresin a fully immersive and interactive environment. Both groups are
studies representative of student experiences from eachcategory that expands on the model and its implications in higher education learningenvironments. The findings emphasize that learning is not a static process; students’ interactionswith AI tools evolve over time, influenced by their initial attitudes and skills. The implications ofthis paper extend to curriculum design, pedagogical approaches, and the broader integration ofgenerative AI tools in higher education.IntroductionThe rapid advancement of generative artificial intelligence has revolutionized various industries,including education. As generative AI tools such as ChatGPT, Claude, and Gemini becomeincreasingly accessible, educators are exploring their potential to transform teaching
in chemical engineering. His primary research interests focus on integrating sustainability concepts into fundamental engineering courses, developing assessments for open education and open access activities, and characterizing polymer surfaces degraded through various processes. Dr. Ter´an has a rich background in engineering education, having designed and taught courses in both Ecuador and the USA. His expertise spans experimental and theoretical aspects of polymer science and thermodynamics. ©American Society for Engineering Education, 2025 Graduate Researchers as Educators: How Presenting to First-Year Students Sparks Interest in Teaching CareersIntroduction
connections and impact. Advantageous patterns are described in [16], [17]. • A fourth point made was that the programs provided the teacher participants with science career insight they would not otherwise have developed. • The STEM director touched on topics the other informants did not. These were the project-based patterns in the programs, which is also an emphasis in the sciences in the local schools and the multidisciplinary nature of the undertaking reinforcing integrating instruction across the curriculum like involvement of math, science, computing, and writing skills. Thus, the administrative informants not only confirmed the presence of challenges in thelocal schools that were identified and
thequality and accuracy of the generated information [10]. However, when implemented in abalanced manner, ChatGPT can become a valuable resource for fostering student autonomyand motivation, improving their academic performance and content comprehension [11].Considering the above, this research aims to analyze students’ perceptions of theincorporation of ChatGPT into their learning processes, specifically in the Applied Staticscourse. By doing so, it seeks to provide a stronger foundation for the integration of AI intothe teaching of technical disciplines in engineering programs from the student’s perspective.MethodologyThis study employs an exploratory approach and utilizes a mixed-methods methodology,combining quantitative and qualitative methods
Engineering and a rich academic experience spanning six years, her overarching goal is to craft engineering learning environments and experiences in a way that intricately engages students on a cognitive level. In addition to her role as an engineer and researcher, Shabnam is an advocate and ally for fostering greater inclusion in STEM fields and beyond.Dr. Nicole P. Pitterson, Virginia Polytechnic Institute & State University Nicole is an assistant professor in the Department of Engineering Education at Virginia Tech. Prior to joining VT, Dr. Pitterson was a postdoctoral scholar at Oregon State University. She holds a PhD in Engineering Education from Purdue University and othDr. Jennifer ”Jenni” M Case, Virginia
teams, make informed decisions, and adapt to changingenvironments. Recently, there has been increasing demand to integrate leadership skilldevelopment into engineering education, as many graduates face difficulties whenassuming leadership roles in professional settings. Previous research highlights theinfluence of factors such as professional experience, extracurricular activities, anddemographic variables on individuals’ self-perception of leadership abilities. However, it isalso interesting to study the relationship between academic performance and the leadershipskills developed by students. Studying the link between GPA and leadership skills isessential, as GPA is often seen as an indicator of academic performance and may beassociated with
Engineering Network initiative at Engineering Education. http:/eed.osu.edu/keen/edu. 2024.[29] T. Grettano and D. Witek, D. The Frameworks: Comparative analyses and sharing responsibility for learning and assessment. In McClure, R. Rewired: Research-writing partnerships within the frameworks. (Editor). Association of College and Research Libraries. Chicago: IL. 2016.[30] E.L. Wallis, J. Nugent, and L. Ostergaard. Partnering as process: Moving toward an integrated undergraduate curriculum. In McClure, R. Rewired: Research-writing partnerships within the frameworks. (Editor). Association of College and Research Libraries. Chicago: IL. 2016.[31] S. Kastner and H. Richardson, H. Researching and writing as
intensive (R1) university. The participantswere undergraduate engineering students across all academic levels enrolled in various coreengineering courses in two departments offered in Spring 2023 (5 courses), Fall 2023 (6courses), and Spring 2024 (7 courses). These courses implemented reflection as part of a largerstudy on integration of reflection in the core curriculum. The total enrollment across all threesemesters was 689 students. Of this enrollment, 541 students consented to participate in thisstudy.For the investigation into the validity evidence for the RKGI, 266 participants from Fall 2023and Spring 2024 (Table 1) were considered (see Section D). While for the use cases, participantsin two core biological and agricultural engineering
. Torbica, “Design and Implementation of an Integrated Curriculum: A Case Study,” inProc. Int. Conf. Future of Teaching and Education, vol. 2, no. 1, Art. no. 1, Aug. 2023, doi:10.33422/icfte.v2i1.59.[8] O. M. ElSahly, S. Ahmed, and A. Abdelfatah, “Systematic Review of the Time-CostOptimization Models in Construction Management,” Sustainability, vol. 15, no. 6, Art. no. 6,Jan. 2023, doi: 10.3390/su15065578.[9] Z. Zhan, Y. Hu, P. Xia, and J. Ding, “Multi-objective optimization in construction projectmanagement based on NSGA-III: Pareto front development and decision-making,” Buildings,vol. 14, no. 7, pp. 2112, 2024.[10] M. Ghoroqi et al., “Integration of resource supply management and scheduling ofconstruction projects using multi-objective whale
inengineering students. The SoSTeM Model emphasizes integrating key skills such ascommunication, problem-solving, and teamwork into engineering education. In our study, wefocused on enhancing these professional skills through an intervention of a one-week pre-internship training program of the intervention group focusing on communication, report writing,and problem-solving. By adopting this model, we built upon proven methods to help studentsdevelop the essential skills needed for their future careers. By evaluating the impact of thisintervention, we hope to provide valuable insights for educators, policymakers, and industryleaders, ultimately strengthening the development of professional skills and aligning engineeringeducation with the evolving
engineering students see how mathematics is usedto solve engineering challenges, they are more likely to recognize the value of their learning.Chng et al., [10] emphasize that integrating activities, real-world data, and incorporatingstrategies like problem- and project-based learning (PBL) can significantly improve studentengagement and understanding of mathematical concepts. “PBL begins when students arepresented with an open-ended, ill-structured, real-world problem and work in teams to identifylearning needs and develop viable solutions, with instructors serving as facilitators rather thanprimary sources of information” [11,12]. PBL fosters motivation to learn, encouragescollaboration, problem-solving, and systemic thinking, while promoting
-319-16169-3_13.[10] J. Love, S. Freeman, and D. Sullivan, “What Sticks with First-Year Engineering Students and Engineering Faculty in STEM Education Service-Learning Projects?,” in 2014 ASEE Annual Conference & Exposition Proceedings, Indianapolis, Indiana: ASEE Conferences, 2014, p. 24.1369.1-24.1369.13. doi: 10.18260/1-2--23302.[11] M. Regan and S. Sheppard, “Interactive Multimedia Courseware and the Hands‐on Learning Experience: An Assessment Study,” J of Engineering Edu, vol. 85, no. 2, pp. 123–132, 1996, doi: 10.1002/j.2168-9830.1996.tb00221.x.[12] H. A. Aglan and S. F. Ali, “Hands‐On Experiences: An Integral Part of Engineering Curriculum Reform,” J of Engineering Edu, vol. 85, no. 4, pp. 327
achievement is specified fordifferent students. A course, which provide advanced education for upper division undergraduatestudents as well as early career graduate students, should include the ability to analyze thesustainability of an engineered system using tools such as lifecycle assessment. As previouslyreported, lifecycle assessment was integrated as part of the semester long course in modeling [8].In addition, the environmental engineering body of knowledge includes Outcome 14, “EffectiveCommunication”. Effective communication includes interactions with the public as well as thetechnical community. The level of achievement specified for upper division undergraduatestudents as well as early career graduate students specifies, “plan, composed
curriculum writer, but quickly evolved to reflect her passion for supporting the tactical details of large-scale programs and product development and dissemination. Ashley is currently engaged in research on behalf of NIHF as a member of the Strategic Data Project Fellowship, a program of the Center for Education Policy Research at Harvard University.Roxanne A. Moore Ph.D., Georgia Institute of Technology Dr. Roxanne Moore is currently a Principal Research Engineer at Georgia Tech with appointments in the Center for Education Integrating Mathematics, Science, and Computing (CEISMC) and Mechanical Engineering. She has spent her 12+ year research faculty career focusing on broadening participation in STEM and creating novel
Paper ID #46656Enhancing Student Learning in a Blended Undergraduate Dynamics Coursethrough Hands-on Mini-ProjectsDr. Sudeshna Pal, University of Central Florida Dr. Sudeshna Pal is an Associate Lecturer in the Mechanical and Aerospace Engineering Department at the University of Central Florida (UCF), where she teaches courses in the areas of system dynamics, controls, and biomedical engineering. Her current research interest is engineering education, with focus on blended learning, project-based learning, and digital and design education. Her educational research is supported by grants through the National Institutes of
signature approach to course design.● A conceptual “big picture” of the course helps orient students, with diverse prior knowledge and experiences, to a shared framework that includes conceptual and practical components.● The pre-, during-, and post-class activities are much like in the previous case, providing students with an organized structure and predictable way to navigate the course.● Interspersed mini-Python programming activities are included in pre-class work, so students can get individual skill practice before incrementally progressing to combined-skills practice – during class and on homework assignments. In addition, we prioritized integrating the Python environment, Jupyter Notebooks, in our LMS, to focus students
) emphasizes an ability to develop and conduct appropriate experimentation, analyze andinterpret data, and use engineering judgment to draw conclusions [1]. While there are severalother courses in the mechanical engineering curriculum such as thermodynamics, heat transfer,and senior capstone design where SO6 can be assessed, those courses at WIT are reserved toassess other outcomes [2].Conventional lab exercises in Mechanics of Materials focus on compression, tension, shear andtorsion. These experiments use standard universal testing machines (UTM) like Instron, MTS,and Tinius Olsen machines to analyze material properties, stress, and strain. While thesetraditional lab assignments provide in depth knowledge of normal and shear stress, strain, torque
seamlessly integrate virtual exchange into their existing studyabroad programs. Its goals include appealing to faculty, being accessible to check out from theuniversity, offering usability, and providing the necessary tools to foster an inclusive virtualexchange experience. By using the kit, faculty can enrich their traditional study abroad programsand extend the benefits to more students.III. Study Abroad“Study Abroad” is a chance for US-based university students to complete all or part of their studiesin a university or institution outside of the United States. As the concept of study abroad hasevolved, in part due to events such as the Coronavirus pandemic, the pedagogical practicesimplemented in study abroad has also changed, with many schools
turning point where shifts need to be made to better satisfy theindustry’s needs. This paper proposed a new framework of implementing the emergingtechnologies into an introductory level aviation course to better prepare students for furthereducation and careers. Institutions and accrediting bodies may consider the proposed frameworkto better align with the industry needs and shifting. Future research may consider using longitudinal studies to measure the effectiveness ofthe new curriculum. Similar frameworks can also be adapted to other entry-level courses inengineering or management fields. Case studies can be conducted in collaboration with industrypartners for curriculum development. The concept of involving emerging technologies
the primary focus is directing students toengage with the tool to reflect on their experiential learning activities such as project teams,study abroad or research so they can build a story bank of their growth and development toprepare for interviews or other employer interactions. In the business school, the tool isintegrated into the undergraduate curriculum, and students achieve different levels of eachcompetency through the courses they take, with some direct interaction with the tool. Lastly,public health has fully integrated the tool with a masters program, where students use the tool toexplore the pathways to different careers as they gain proficiency in various skills, and much ofwhat happens in the tool is automated through the
skills gap forengineering graduates: Recent trends in higher education Paper presented at 2023 ASEE AnnualConference & Exposition, Baltimore, Maryland. 10.18260/1-2--43338[2] M.S. Kleine, K. Zacharias, and D. Ozkan, D. Contextualization in engineering education: Ascoping literature review. Journal of Engineering Education, 2024.113(4), pp.894-918.[3] J. Goggins, M. Hajdukiewicz. The role of community-engaged learning in engineeringeducation for sustainable development. Sustainability, 2022. 14(13), p.8208.[4] M. Mosleh, K.A. Shirvani, K.A. Design, Build, and Test Projects in an Engineering MaterialsLaboratory. In 2017 ASEE Mid-Atlantic Section Fall Conference.[5] A. Verma, K. Snyder. Integrating community-engaged research and energy justice
Paper ID #47592Introducing Programmable Logic Controllers in Undergraduate ChemicalEngineering Process Control Laboratory using a Liquid Level SystemTata Serebryany, University of WashingtonJennafer Marsh, Brigham Young UniversityHayden Scott WestDr. Stacy K Firth, University of Utah Stacy K. Firth is an Assistant Professor (Lecturer) in the Department of Chemical Engineering at the University of Utah. In her role, she focuses on Engineering education in grades K-12 and undergraduate education. She has developed an inclusive curriculum for a year-long Engineering exploration and projects course that is now taught in 57 Utah
the dissertationphase of a doctoral program. Autoethnography is appropriate for the current study, given itsability to describe a cultural phenomenon through the lens of personal experiences [27]. Thismethod also allows a researcher to present cultural findings from an "insider" perspective,especially useful for a unique case but still reflective of broader cultural implications [28].The autoethnographer and individual under study is an engineering educator and secondary mathinstructor with 15 years of combined classroom experience. She holds both a B.S. and M.S. inMechanical Engineering and a Curriculum & Instruction Graduate Certificate. In year four ofPh.D. studies in engineering education, the autoethnographer applied for and was
Paper ID #46874The impact of implementing community engagement projects in a first-yearengineering courseMatthew James, Virginia Polytechnic Institute and State University Matthew James is an Associate Professor of Practice in the Department of Engineering Education at Virginia Tech, where he currently serves as the department’s first-year program coordinator. Since joining in 2017, Matt’s work has centered on teaching and curriculum development for the general engineering program, with a focus on foundational experiences for first-year students. He holds B.S. and M.S. degrees in Civil Engineering from Virginia Tech and
Paper ID #48099Students’ Experiences of Learning Technical Writing in Computer ScienceCourses: Perspectives on AssessmentDr. Meghan Allen, University of British Columbia Meghan Allen is an Associate Professor of Teaching in Computer Science at the University of British Columbia, where she has been teaching since 2007. She holds a PhD in Curriculum and Pedagogy and is interested in designing curriculum, understanding student experience, and mentoring future teaching-focused computer science faculty members. ©American Society for Engineering Education, 2025 Students’ Experiences of
Paper ID #49143Fostering Adaptive Expertise in First-Year Engineering Design: Coaching,Iterative Prototyping, and Structured LearningDr. Micah Lande, South Dakota School of Mines & Technology Micah Lande, PhD is an Assistant Professor and E.R. Stensaas Chair for Engineering Education in the Leslie A. Rose Department of Mechanical Engineering at the South Dakota School of Mines & Technology. Dr. Lande directs the Holistic Engineering Lab and Observatory. He teaches human-centered engineering design, design thinking, and design innovation courses. Dr. Lande researches how technical and non-technical people learn and
effectiveness of Student-Identified and Industry-Provided project-based learning approaches in BIM education. The results provide valuable insights intothe validity of these hypotheses. • Hypothesis 1: Students who participate in an Industry-Provided PBL approach will demonstrate significantly higher academic performance than students who participate in a Student-Identified PBL approach. The analysis of final exam and overall course grades revealed no significant differences between the two sections, indicating that both approaches effectively supported student performance. This outcome highlights the robustness of the standardized curriculum and suggests that PBL impacts engagement and satisfaction more