with students in grade4. Recognizing the importance of student identities and their development throughout astudent’s educational career, I seek insight into the following question: 1. How does participation in an engineering unit utilizing the engineering design process allow students to authentically engage in critical thinking skills as an authentic engineering performance? 3 Literature ReviewSTEM Identity Development Student identities (specifically STEM identities) are constantly changing and developingthroughout adolescence, influenced by a variety of factors
Catherine G.P. Berdanier is an Associate Professor of Mechanical Engineering at Pennsylvania State University. She earned her B.S. in Chemistry from The University of South Dakota, her M.S. in Aeronautical and Astronautical Engineering and her PhD in Engineering Education from Purdue University. Her research expertise lies in characterizing graduate-level attrition, persistence, and career trajectories; engineering writing and communication; and methodological development. ©American Society for Engineering Education, 2025 Creating Public Resources to Diversifying Content in Mechanical Engineering: Fostering Awareness and Ethical ConsiderationsAbstractThis paper explores an innovative
faculty member at Northern Arizona University.Dr. Kyle Nathan Winfree, Northern Arizona University Dr. Winfree is the Associate Director for Undergraduate Programs in the School of Informatics, Computing, and Cyber Systems as Northern Arizona University. His research focuses on wearable technologies as applied to health assessment and rehabilitation.Dr. Corinna Marie Fleischmann P.E., United States Coast Guard Academy CAPT Corinna Fleischmann is a licensed Professional Engineer with military, academic and research experience in water resources engineering, environmental engineering, coastal resiliency, construction project management and engineering education. CAPT Fleischmann is a career educator who has been a
of Virginia Patent Foundation. ©American Society for Engineering Education, 2025 Paper ID #48048 Chris received his doctorate in nuclear physics from the University of Virginia in 2001. In 2003, he became a registered U.S. Patent Agent and in 2008 he became a Certified Licensing Professional. He is also an active member of the Association of University Technology Managers and helped create and manage the AUTM TransACT database for deal comps. Chris also provides guest lectures for entrepreneurship classes at Vanderbilt. Prior to his graduate school career, Chris worked as a software design
: Students decompose a problem to explore, design, and implement creative solutions, continuously evaluate progress, and navigate uncertainty. Develop scientific habits of the mind: Students apply scientific content from diverse fields to appropriately design experiments, gather and manage data, analyze and draw conclusions. Develop personal and professional identities: Students reflect upon their experiences to further their sense of self in order to become confident career-ready leaders.1B. The InSciTE modelTo accomplish the program objectives, InSciTE was designed as a stand-alone undergraduatecertificate housed by CSE. This provides the independence and flexibility necessary to navigatethe barriers that marginalized students face in
, understanding and applying standards, codes, and specifications isessential for career success and closely aligns with ABET student outcomes, which support theprogram’s educational objectives to prepare graduates for professional engineering practice.However, a significant gap exists in how engineering faculty systematically integrate theteaching of these concepts into the curriculum. This pilot study at the University of SouthAlabama aims to address this gap by utilizing Bloom’s learning framework to design learningmodules that can be incorporated into existing civil engineering courses. These modules spanvarious levels, including an introductory freshman course, sophomore-level mechanics ofmaterials, junior-level civil engineering materials, and
centers both STS and non-academic perspectives.Prof. Emily Liu, Rensselaer Polytechnic InstituteDr. James Olson, Rensselaer Polytechnic Institute After a twenty year Engineering career inventing and operating advanced technology in various private sector and military environments, Jim Olson returned to Academia to formalize and publish the methods and best practices he developed while mentoring and training Early Career individuals in the practical application of STEM concepts. Jim’s research if Engineering Education centric and he is currently pursing a Doctorate of Engineering at Rensselaer Polytechnic Institute in Troy, NY ©American Society for Engineering Education, 2025Development of a Pre
tailored tosupport a wide range of skill levels, academic backgrounds, and interests, aimed at creating awelcoming space for participants to explore new ideas, technologies, and career paths. Figure 1. OHI/O Historical TimelineOHI/O serves a diverse and interdisciplinary student population, drawing participants from over60 academic majors, with a strong representation from computer science, computer engineering,and electrical engineering. This diversity fosters a rich collaboration, innovation, and peerlearning environment, ensuring that students from various backgrounds and experiences cancontribute meaningfully to and benefit from OHI/O’s events and resources.OHI/O’s mission is deeply rooted in supporting students
Undergraduate Programs in Canada. University Goals/Objectives Curriculum Structure Program Overview Carleton To provide a strong - AI/ML stream within the - Focuses on modern University foundation in Bachelor of Computer AI/ML techniques such as computer science with Science (Honours). data mining, natural specialized training in language processing, and Artificial Intelligence deep learning. (AI) and Machine - Prepares students for Learning (ML) [5] careers in AI, software
,specifically generative AI based solutions, as an exploratory exercise for students. These toolsserve as both a benchmark and a critical evaluation exercise for students. By comparing their ownsolutions with AI-generated ones, students gain insights into the strengths and limitations ofgenerative AI while enhancing their critical thinking and problem-solving skills. This also servesas an informative study on student perceptions on integrating generative AI into their own works.The reflective nature of this exercise can give student’s insight into their own usage of generativeAI in other courses and as they evolve into an engineering career. Broadly speaking, thisintegration explores a modernized approach to engineering education, aligning with
partnerships to statewide educational systems. The findings encourage thedesign of policies and transfer structures that meet the needs of systems and the career goals ofstudents.Background/Literature ReviewModes of institutional transfer There are many ways in which students transfer course credits between institutions toearn a degree in engineering. These include: • vertical transfer, or course credit transfer from a community or technical college to a university, • lateral transfer, or course credit transfer from a university to a different university, • reverse transfer, or course credit transfer from a university to a community or technical college, • dual credit or concurrent enrollment transfer from a high
and computing-related communication curricula, highlighting the critical role of security in contemporary communication systems. • Encouraging Careers in Secure Communication: Through a detailed explo- ration of emerging technological advancements, this research seeks to inspire undergraduate students toward pursuing careers in the field of secure commu- nications, showcasing promising professional opportunities and pathways. • Identifying and Analyzing Communication Vulnerabilities: The initial phase of this research involves an in-depth examination of vulnerabilities inherent in unsecured communication systems, providing a comprehensive understanding of potential security threats, weaknesses, and their
Engineering Department at MIT. SheKhas served in various teaching capacities from undergraduate instructor to lead instructor of courses in design and manufacturing in the departments of mechanical engineering and materials science at MIT over the course of eighteen years. Her PhD research and current lab focus on projects at the intersection of design and manufacturing, with challenging materials and environments. For five years prior to graduate study, she worked as a manufacturing engineer in the medical device and microfabrication industries. This time in industry, combined with her experience as an undergraduate student taking the same course, as well as family members specializing in education careers have
engineering majors and career opportunities, as well as comparing their major of interest to other similar engineering majors ● Developing academic plans of study which map out their course and degree requirements through graduation ● Assisting with a student’s transition from high school to college and helping students build academic self-efficacy to assume more responsibility for their undergraduate education prior to entering a majorApplication of Theory of Change: Forum DesignForum ParticipantsThe COE at Virginia Tech comprises 12 major-granting departments that collectively offer 14degree programs and 33 engineering majors. Reinholz and Andrews recommend that any theoryof change should begin with developing a working
instructor adaptability at the 2024 ASEE Annual Conference & Exposition. Following the completion of her undergraduate education, Hayden will be pursuing her master’s degree in structural engineering at the University of Nebraska - Lincoln. She then hopes to pursue a PhD in engineering education.Grace Panther, University of Nebraska - Lincoln Dr. Grace Panther is an Assistant Professor in the Department of Civil and Environmental Engineering at the University of Nebraska – Lincoln where she conducts discipline-based education research. Her research interests include faculty change, 3D spatial visualization, gender inclusive teamwork, and studying authentic engineering practice. Dr. Panther was awarded an NSF CAREER
, but many other careers as well. Interms of how it affects people, AI when developed as a tool makes the jobs of engineers muchmore manageable” (56 words) was suggested to be revised to “While AI is in its infancy, it is asustainable tool that can not only optimize engineering, but all careers” (20 words). Second, bothreviewers would comment if errors in punctuation and grammar were frequent enough tocompromise the effectiveness of the memo, and in many cases provide advice about grammaticalrules. In one instance, both reviewers noted a student had included a “reflection” section in theirmemo was neither a convention nor a move of memos, and that contained information that wasnot solicited by the assignment prompt (all other reviewers ignored
trademarks).Dr. Olivier Ladislas de Weck, Massachusetts Institute of Technology Olivier de Weck is a Professor of Aeronautics and Astronautics and Engineering Systems at MIT. His research focuses on the technological evolution of complex systems over time, both on Earth and in Space . He is a Fellow of INCOSE and ASEE and serves as Faculty Co-Director of the MIT Gordon ProgramLuca Carlone, Massachusetts Institute of Technology Luca Carlone is the Boeing Career Development Associate Professor in the Department of Aeronautics and Astronautics at the Massachusetts Institute of Technology, and a Principal Investigator in the Laboratory for Information & Decision Systems (LIDS). He received his PhD from the Polytechnic
exchange, where language proficiency, cultural awareness, andinitiative converge.Overall, the engineering education experience was shaped by disciplinary content and theinterplay of communication styles, institutional expectations, and social positionings within thelab. Students gradually moved from tentative observers to more confident contributors, but thistransition was uneven and contingent. The distinction between those pursuing graduate studiesand those focused on professional careers was especially salient in how they perceived andutilized these experiences. The former framed technical challenges as preparation for researchcareers, while the latter often emphasized immediate skill acquisition and professionalapplicability in Colombia.These
image generator, MicrosoftCopilot is available to all faculty, staff, and students with enterprise-level security and privacy.Courses and CurriculaKSU offers a number of degrees and certificates, each requiring students to take several coursesthat prepare students for technical careers related to artificial intelligence. These include: ● Advanced Intelligent Systems Programming (undergraduate certificate) ● Applied Machine Learning (undergraduate certificate) ● Computer Science (Bachelor of Science, Master of Science, Doctor of Philosophy) ● Data Analytics (Master of Science, graduate certificate) ● Machine Learning and Autonomous Systems (Bachelor of Science, graduate
with whichtraditional engineering courses can integrate the principles of HCD while meeting ABETrequirements [18]. Lawrence et al. created an HCD taxonomy for trans-disciplinary learning [20]while Shehab and Guo have validated metrics for assessing the impact of HCD on learning inhigher education courses [21].Case studies on HCD have shown that the HCD process can improve students’ perception thatuser-research and input is a critical component of the design process [22]. HCD has also beenshown to greatly benefit the creative problem-solving ability of students over the duration of aclass [23], and engage students more thoroughly to retain them in STEM when introduced to HCDearly in their engineering careers [24].2.2. Project-Based
educational and career pathways of engineers. In The National Academy of Engineering (Vols. 2018-June). The National Academies Press. https://doi.org/10.17226/25284[2] ASEE. (2024). Cooperative and Experiential Education Division. Retrieved from: https://ceed.asee.org/[3] Moher D, Liberati A, Tetzlaff J, Altman DG, The PRISMA Group (2009) Preferred Reporting Items for Systematic Reviews and Meta-Analyses: The PRISMA Statement. PLoS Med 6(7): e1000097. https://doi.org/10.1371/journal.pmed.1000097[4] Power, J. (2021). Systematic reviews in engineering education: a catalyst for change. European Journal of Engineering Education, 46(6), 1163–1174. https://doi.org/10.1080/03043797.2021.1980770[5] Phillips, M., Reed, J. B
∗ hall.carrie98@gmail.com, Safia@ksu.edu, lshamir@ksu.edu Kansas State UniversityAbstractData science careers are projected to grow by more than 30% by 2032, yet data science academicsare lacking and cannot satisfy the growing market demand for qualified data scientists.Additionally, K-12 data literacy rates are declining, introducing a gap between moderndata-driven society and the ability of members of society to understand data. Early experienceswith STEM subjects have been shown to influence and predict students’ long-term careeroutlooks and outcomes. In the context of data science, this means that early introduction at theK-12 level is crucial in order to develop and maintain the data science workforce. Although
are engineering students’ ethical concerns related to the adoption ofGenAI-based tools in their education and future careers? (RQ3) What are students’ perceptionsof benefits v.s. harms of GenAI for themselves, science, and society?To address these RQs, we conducted two separate surveys of all students at the Colorado Schoolof Mines (henceforth referred to as “Mines”), a small (< 10k students) engineering-focused R-11university in the USA in May 2023 (n1 = 601) and Fall 2024 (n2 = 862). This paper reports onthe findings, demonstrating statistically significant results related to increasing frequency of useof GenAI by engineering students over time, and other trends related to use cases, studentmotivations, ethical concerns, and perceived
andmotivation in UGR can aid in the design of improved workshops and courses for UG researchers,as well as provide direction for individual faculty who are interested in leveraging EM in theirmentorship of UG students.Introduction:Undergraduate research (UGR) is widely recognized as a high-impact practice that enhancesstudents’ academic productivity. The engagement in learning, retention in college, and careerpreparedness of students can be positively affected by participating in UGR. Studies show thatUGR helps students clarify career goals [1], foster a sense of identity as scientists or engineers[2], and build resilience [3]. Additionally, UGR serves as a valuable ecosystem for preparingfuture graduate students and enhancing research lab productivity
Entrepreneurial Mindset.Background/Theoretical PerspectivesCapstone courses in engineeringEngineering capstone courses are an important component in engineering education as theyprovide students with the opportunity to solve design challenges using their accumulatedknowledge of their collegiate career. These design challenges are instructional, allowing studentsto practice and gain mastery prior to graduation. Oftentimes, these capstone experiences aresenior design courses and serve as completion markers prior to graduation. These courses aim toprovide the capstone experience through a multi-faceted “design” project [1], ideallyincorporating real-world objectives and constraints [2]. Oftentimes, the design project requiresstudents to balance several, at
undergraduate curricula, multidisciplinary team teaching, and skill-based evaluations. Having the opportunity to combine their expertise with other engineeringfields creates for students a real teamwork learning experience that enhances their preparation fortheir future professional practice. Graduating the fourth M-MCDP cohort in December 2024, thepaper presents the benefits and impacts on graduates’ engineering career, as well as thelimitations and areas for improvements, gathered from surveys of alumni and graduatingstudents. Being involved in large-scale, real, and complete multidisciplinary design projects thatthey manage independently allows students to develop not only their technical skills but alsotheir project management and professional
learning experiences ifimproperly implemented [15], [24]. One key advantage of GenAI in engineering education is its ability to simulate real-worldproblem-solving scenarios [3], [5], [25]. AI-driven adaptive learning systems can dynamicallyadjust complexity levels in problem-based tasks, allowing students to engage with progressivelymore challenging content [23]. Additionally, collaborative AI tools enable students to work inteams on engineering design challenges, reinforcing communication and teamwork skills—bothof which are vital in multidisciplinary and industry-relevant contexts [26]. The increasing fluidity of career pathways in engineering also underscores the need forlifelong learning and interdisciplinary competence, as AI
thinking.7. Outcomes and BenefitsIntegrating EML into the Networks and Data Communications course has several benefits:Enhanced Student Engagement: Students were more motivated to engage deeply with thematerial by connecting course content to real-world challenges and opportunities.Improved Critical Thinking: The process of risk assessment, question formulation, and valuecreation helped students develop critical thinking and problem-solving skills.Preparation for Industry: Students gained practical skills with an entrepreneurial mindset, whichprepared them for successful careers in the IT industry.Value-Creation Focus: Students learned to prioritize impactful and innovative solutions byemphasizing the importance of creating value.8. ConclusionIn
, and sustainable infrastructure.Mr. Pelumi Olaitan Abiodun, Morgan State University Pelumi Abiodun is a current doctoral student and research assistant at the department of Civil Engineering, Morgan State University, Baltimore, Maryland. Pelumi got his BSc and MSc degree in Physics from Obafemi Awolowo University, where he also served as a research assistant at the Environmental Pollution Research unit, in Ile-Ife, Nigeria. As part of his contribution to science and engineering, Pelumi has taught as a teaching assistant both at Morgan State University and Obafemi Awolowo University. With passion to communicate research findings and gleaned from experts in the field as he advances his career, Olaitan has attended