again.As the complexity and the need to speed up engineering tasks continue to grow, one cannotdiscount the benefits of AI integration. The presence of complex challenges and the need toefficiently execute engineering tasks, by optimizing multifaceted team assignments becomesapparent and inevitable. Traditional team assignment methods, which rely on experience,knowledge, static criteria, and human intuition, may not always be attuned to the sometimes-dynamic nature of modern engineering tasks. To this effect, AI offers an alternative to thischallenge. With real-time data, insights about complex engineering tasks, and employeequalities, AI tools may be able to streamline team assignments and workflow to enhanceengineering project overall
expression, focuses on how to assess students’knowledge. An example of this is allowing students to choose how to demonstrate theirknowledge, either through a test or a hands-on project. Teachers can integrate UDL principles byusing the tips and tricks provided by the CAST ((Center for Applied Special Technology)website [6].While UDL has mainly been implemented in K-12 contexts [8], non-STEM higher educationinstructors have incorporated UDL into their pedagogical practices and interviewed studentsabout UDL in fields such as the Arts, Education, Humanities, and Business. The implementationof UDL in higher education has been shown to improve students’ learning [5]. Furthermore,students can enhance their understanding of the material by using
academic quarter, meaning that students have three quarters per academicyear and two years to complete their requirements. The program largely grants students theautonomy to complete their courses in an order of their choosing, though some courses haveprerequisites.MethodsTo develop preliminary insights regarding the HCDE program, members of the research teamreviewed current course information, such as syllabi and project materials, and engaged indiscussion with faculty to further explore the program’s current offerings and efforts to seekaccreditation. The team’s exploration included reviewing PEOs and using them to develop apotential set of competencies that students should develop as a result of engaging in the requiredcourses. The PEOs and
in Communicating Mathematical ContentAbstractThis Work in Progress study explores the impact of weekly journaling assignments onengineering students’ ability to communicate mathematical concepts effectively in designprojects. At Louisiana Tech University, first-year engineering students participate in the “Livingwith the Lab” course sequence, culminating in the First-Year Projects Showcase. While studentsexcel at explaining their product’s purpose and hardware, they often struggle to articulate theunderlying STEM principles, especially in mathematics.To address this gap, a targeted journaling assignment was integrated into the calculus sequence toenhance reflection on mathematical concepts and their connection to engineering
student writing self-efficacy, embodied contemplative pedagogies, and welcoming practices in writing centers. She has published in venues including The Writing Center Journal, WAC Clearinghouse, and Composition Forum. She is a co-PI in the NSF IGE project, ”The Writing SySTEM: A Systemic Approach to Graduate Writing Instruction and Intervention.”Dr. Christopher Ryan Basgier, Auburn University Christopher Basgier is Director of University Writing at Auburn University. In that role, he consults with departments about integrating writing and high-impact practices throughout undergraduate and graduate curricula. His research, which spans writing across the curriculum, writing centers, genre, threshold concepts, and
to show up or complete tasks, rarely prepared. • Deficient - Often failed to show up or complete tasks, rarely prepared. No • Unsatisfactory - Consistently failed to show up or complete tasks, unprepared. • Superficial - Practically no participation. • No show - No participation at all.Consideration of others. For Consideration of Others, we decided to use the Service LearningReflection from senior design projects, summarized below. The “Others” part of theConsideration of Others attitude likely includes the design, team, the client, and the users of theproduct. It asks students to do the following. • Explain how some knowledge from your undergraduate education and civil engineering skills were used in the project
between theoretical educationand real-world application, fostering civic participation. They also facilitate collaborativelearning experiences, enabling students to work on civic projects and engage with communities.Aligning technology with pedagogical strategies creates interactive learning environments thatenrich civic education. Quantitative studies confirm that technology integration leads toimproved civic understanding, motivation, and participation, with AI-driven chatbots andimmersive virtual reality demonstrating positive effects on engagement and learning outcomes.Conclusions: Integrating design-thinking into civic education using technology offersdemonstrable benefits for student engagement and learning outcomes
complex [2]. Recentinnovations in immersive technologies, particularly 360-degree video, offer a promising solutionby providing realistic yet controlled training environments [3].In this paper, we propose that 360-degree video can serve as a stepping stone toward fullyimmersive Virtual Reality (VR) training modules, reducing the barrier to adoption fororganizations with limited budgets, technical expertise, or aircraft availability.This study has two primary aims. The first aim is to document a collaborative autoethnographycapturing our interdisciplinary project team’s personal experiences and reflections. The secondaim is to present a practical guide for those interested in implementing 360-degree video inaviation maintenance training, using the
students’ educational, social, and psychologicaloutcomes, particularly for non-majority students in engineering and computing education whooften experience isolation, which in turn impacts their decisions to leave their fields of study.Consequently, sense of belonging research has become more prevalent in engineering andcomputing education to challenge racial and socioeconomic disparities, leading to a recent surgeof interest and publications in the field. This work is part of a larger literature review project on asense of belonging in engineering and computing education, focusing on the barriers, needs, andinfrastructure that help non-majority students develop a sense of belonging. While this review isongoing, we present some preliminary
Engineering at Joanneum University of Applied Sciences, where she has been teaching English for Specific Purposes (ESP) courses at undergraduate and graduate level for over 25 years. She is directly involved in the Master’s level Engineering Projects and contributed actively to the STEM outreach project described in this paper.Bernhard Fuchs, Joanneum University of Applied Sciences Bernhard Fuchs holds a master degree in automation technology and is currently a lecturer in mechanical design at the FH Joanneum.Luka Grbeˇs, Joanneum University of Applied Sciences Luka Grbeˇs obtained his B.Sc degree in Mechanical Engineering at the University of Applied Sciences in Zagreb. Currently, he is completing a M.Sc. in Automotive
aboutexpressing what they’d like to pursue Robotics for or apply robotics to. The idea of giving students agency—encouraging them to explore robotics through playand integrate robots into their hobby projects—drives our work to shift the conversation from‘Robots in Education’ to ‘Robotics Education’ in the K-12 space. This work-in-progress researchpaper examines the Robotics Education landscape for innovative approaches to introducingrobotics in K-12 education. Our goal is to design and develop interventions inspired by this studyin the future. Here, we share some preliminary insights from our review of 20 research articles,investigating two key research questions: 1. Why are K-12 educators using robotics? 2. How are K-12 educators using
elementary school teachers learning to teach engineering.Dr. Mary McVee ©American Society for Engineering Education, 2025 Elementary Teacher learning of Engineering for Translanguaging Infusion (Fundamental)ABSTRACTThis paper presents our project regarding teacher development around engineering and language.Particularly, this work examines how elementary teachers engage in teaching engineering to theirclassrooms which contain multilingual students, using the lens of translanguaging.Literature on professional development projects with US public school teachers has shown thatsustained professional development programs have more impact on teacher learning. As the newNext Generation Science
mining, energy and infrastructure sectors. Emily led international teams to develop new product and service offerings and to deliver major projects, first as the Director of Technology Development and then as Managing Director, Water. Emily was also the inaugural chair of Hatch’s Global Diversity and Inclusion efforts. Emily holds a Bachelor Degree in Engineering Chemistry from Queen’s University and completed a Doctorate in Physical Chemistry from Oxford University as a Rhodes Scholar. In 2016 Emily was recognized as one of 100 Global Inspirational Women in Mining and received the SCI Canada Kalev Pugi Award. Emily continues her involvement with industry by serving on boards, including Metrolinx (2019-2024
environments for higher education students studying computer programming. She is particularly interested in investigating students’ programming learning processes, exploring methods to simplify programming instruction, examining theoretical foundations for effective instructional design, and integrating artificial intelligence technologies to facilitate peer-like knowledge construction. ©American Society for Engineering Education, 2025 Analysing Feedback of an AI Tool for Formative Feedback on Technical Writing AbilitiesAbstractThis Full paper describes the use and validation of feedback provided by an AI tool to supportstudents’ technical writing abilities. The project is part of a
Environmental Engineering from Missouri University of Science and Technology, and her B.S. in Nuclear Engineering from the University of Missouri-Rolla (same school, different name). At Rose-Hulman, Michelle is co-leading a project to infuse an entrepreneurial-mindset in undergraduate students’ learning, and a project to improve teaming by teaching psychological safety in engineering education curricula. Michelle also mentors undergraduate researchers to investigate the removal of stormwater pollutants in engineered wetlands. Michelle was a 2018 ExCEEd Fellow, and was recognized as the 2019 ASCE Daniel V. Terrell Awardee.Dr. Liping Liu, Lawrence Technological University Liping Liu serves as the Associate Dean of Graduate
study is limited to the five counties of WesternNew York comprising the Buffalo Niagara Metropolitan area, a specific area with specific cleanenergy needs and potentials. Evaluation of clean energy training strategies and approaches islimited to the United States in the present paper, and many factors would be distinct in aninternational context. A. Survey Creation and ConductA web-based survey for this project was created using Microsoft Forms, a web-based applicationwithin the Microsoft Office suite that allows users to create and distribute online surveys tocollect data through a user-friendly interface. The survey in Appendix A, used questions tomeasure respondents' self-reported demographics (age, gender, education, title, career field
of Transportation. He then earned his Ph.D. in Civil Engineering at Virginia Tech followed by research work at the Turner-Fairbank Highway Research Center on concrete bridges. He is currently a professor of civil engineering and the Jackson-Hope Chair in Engineering at VMI. He teaches engineering mechanics, structural engineering, and introduction to engineering courses and enjoys working with his students on bridge related research projects and the ASCE student chapter. His research interests include engineering licensure policies, civil engineering curriculum, and the use of innovative materials on concrete bridges. ©American Society for Engineering Education, 2025 One Path to
. Additionally, she serves as the chair of the undergraduate subcommittee for the department’s Health, Equity, and Wellness committee and holds the position of president in the BMES student chapter at UC Davis.Saahil Sachdeva, University of California, Davis Saahil Sachdeva is a 4th-year undergraduate student in biomedical engineering at UC Davis. After completing his role as the 2024 Peer Mentor for the BME at the Health Campus program, he is now guiding the students to integrate their clinical immersion experience into their upcoming capstone projects. Saahil is also actively involved in research, including the development of a bone marrow microphysiological system under Dr. Steven George at UC Davis and an innovative
educational infrastructure, spanning from precollege to engineering education.Through its Dwight Hutchins Engineering Diversity Programs [7], TCE offers precollegeprograms such as eVOL10 and HITES12, which are one-week residential programs for rising10th and 12th graders, respectively. In these programs, precollege students fromunderrepresented minorities learn about careers in engineering, tour engineering labs andfacilities, explore the UTK campus, and work on engineering design projects. Within TCE, someresearch centers also offer outreach programs for precollege students and teachers, such asCURENT in the Electrical Engineering and Computer Science (EECS) Department. AlthoughTCE has successfully increased the number of underrepresented
Paper ID #48490Experiential Learning Activities: Building Grit and Driving Success AmongMechanical Engineering GraduatesDr. Francisco J Montalvo, Purdue University Francisco Montalvo is a Lecturer in the Design and Manufacturing area and the Assistant Director for Experiential Learning in the School of Mechanical Engineering at Purdue University. Francisco has contributed to experiential learning and diversity initiatives at Purdue University through project-based learning and international exchange programs. He co-led the Global Engineering Alliance for Research and Education (GEARE) program and is the co-founder of the
Angeles, ECS expandednationwide with NSF support. However, teachers in Milwaukee encountered challenges inadapting the ECS curriculum, particularly Unit 3 on web development, due to virtual settings,rising truancy, and Chromebook limitations. Many teachers opted for web-based alternatives withautomated coding activities, despite these being less effective for underrepresented students.These platforms lacked project submission and feedback features, increasing teacherworkload.In response, we developed the ECS Web Lab (ECS-WL), a Chromebook-compatible web tooldesigned to facilitate HTML and CSS learning while preserving ECS’s core principles: CScomprehension, inquiry-based learning, and educational equity.ECS-WL integrates features such as an in
into existing undergraduate courses in Solid Mechanics and in creating connections between different courses.Dr. Thomas Golecki, University of Illinois at Urbana - Champaign I spent 10+ years in industry as an engineer in structural mechanics and structural health monitoring projects, earning professional licensure as PE and SE. My PhD research focused on the structural optimization of dynamic systems including random loading and vehicle-bridge interaction. Now as teaching faculty, I try to connect course concepts to real-world examples in a way that motivates and engages students.Dr. Kellie M Halloran, University of Illinois at Urbana - Champaign Kellie Halloran is a Teaching Assistant Professor in Mechanical Science
interactions, and empathy in engineering education. Her technical research focuses on naturalistic driving and older driver fitness assessment.Sean Rose, University of Waterloo ©American Society for Engineering Education, 2025 Biomedical Stakeholder Café – Continual Improvement & Integration of a Novel Adapted RADAR Framework for StakeholdersAbstractHuman-centered design processes, recommended for many healthcare-focused engineeringdesign projects, require engaging and involving multiple, diverse stakeholders. Health carestakeholders can be particularly diverse and challenging to successfully integrate into a designprocess, especially for students. Facilitating opportunities for engineering
, students were assigned a MATLAB-based projectfocused on solving an engineering problem focused on projectile motion using variousprogramming approaches. The details of this project are provided in Appendix A. The complexityof the computations made manual calculations impractical, necessitating the use of MATLAB forefficient execution. Students were required to develop their own code independently but wereencouraged to seek assistance from ChatGPT 4.0 whenever they encountered difficulties.ChatGPT provided hints, suggested debugging strategies, and explained coding principles asstudents worked through their solutions. An example of this is presented in Appendix B, whichoutlines the procedure for solving the first part of the project.After
bridging the divide between industry practice and educational innovation to support the future-ready construction workforce. ©American Society for Engineering Education, 2025 Identifying the Learning Needs of Construction Professionals for Artificial IntelligenceAbstractThe integration of artificial intelligence (AI) in the construction industry is gaining momentum,driven by its potential to enhance project efficiency, safety, and innovation. However, thesuccessful adoption of AI technologies relies heavily on the ability of construction professionalsto understand, implement, and manage these new technologies. Despite the growing presence ofAI, a significant gap remains in the
electrical and computer engineeringeducation, supporting technologies ranging from wireless communication to radar systems.However, its abstract mathematical foundation and conceptual complexity often presentsignificant challenges. Traditional lecture-based methods have struggled to provide theexperiential learning necessary to bridge the gap between theoretical principles and practicalapplications. Prior research highlights the effectiveness of active learning and hands-onexperimentation in improving engagement and comprehension [1], [2]. Studies in physics andengineering education have demonstrated that simulations and real-world projects contributeto a deeper understanding of topics such as wave propagation and Maxwell’s equations [1],[2], [3
persistent issue, I have personally experienced the disruptive effects of inconsistent electricity supply. This inspired me to pursue a project that could contribute a reliable, affordable power solution for communities facing similar challenges. My project The Design and Construction of a Portable Inverter Generator for Stable and Emergency and Flight Line Power Supply is a direct response to these issues. Through this research, I aim to develop a cost-effective, energy-efficient solution that can provide uninterrupted power, particularly for critical applications like flight line operations or emergency power in remote areas. I hope this project not only enhances my understanding of energy conversion technologies but
Teaching and Learning of STEMAbstractModern engineering, in solving society's pressing problems, requires collaboration. In addition toemploying multi-disciplinary teams of engineers, the needs of a diverse set of stakeholders alsomust be considered. It is therefore essential that engineering students learn to value and considerdiverse perspectives on an engineering problem, realizing that there is not necessarily just oneright answer.The iSTEAM project has been addressing this need by creating and running a series ofworkshops for faculty that focus on invitational rhetoric in inclusive STEM teaching.Participating faculty engage with readings and videos, do gamified activities to make their ownclasses more inclusive, and meet weekly (over 5 weeks
Paper ID #47583Work in Progress: Supporting Better Conversations in Senior Design TeamsDr. Charles Riley, Oregon Institute of Technology ©American Society for Engineering Education, 2025 Work In Progress: Supporting Better Conversations in Senior Design TeamsAbstractEffective interpersonal communication in senior design teams can be the key to their success orthe reason for their failure. The high-risk, high-reward nature of senior project courses can leadto challenging team environments where miscommunication between even just two members canhave significant consequences for the whole team. While team member assessment tools
from across the SUNY system and integrating inclusive use ofAI as well as OER distribution plans into the framework. Workshops wereconducted online, with past participants serving as mentors to 38 new participantswho completed modules and collaborated across institutions. Feedback from theparticipants shows the value of the project and the ways in which STEM courseshave been made more inclusive. This project will help to grow a community ofSUNY STEM instructors who can foster among future STEM professionalsdiverse perspectives, inclusive approaches, and equitable applications of sciencein society.I. Background: A. Impact of alternative forms of rhetoric on STEM educationAcross higher education, and especially in STEM fields, educators are