undergraduate degree and this modeling would be showcased bythe diverse career pathways of the faculty body. After all, students came to Wake ForestUniversity to combine a traditional liberal arts education with the innovation of an engineeringdegree. Students wanted to use their engineering degree for both engineering and non-engineering pathways and diverse professional pathways. Students wanted a technicalengineering degree but had unique interests to combine general knowledge, engineeringdisciplinary knowledge, and professional knowledge. Faculty with both traditional academicjourneys and faculty with industry experience would need to be recruited and to be united arounda common vision, mission, and values of the new department. As will be visible
○ First gen: improved leadership and communication skills ○ Increased feeling of being prepared for a research role, ○ SG2-4: 129 participants. 90% comp to 40% applied to research position, 40% vs 10% working in lab● Grad students ○ Increases in TA job satisfaction and sense of belonging to community of TAs ○ Increase in ability to succeed, combat self-doubt, and pursue self-empowerment ○ Increases compared to climate survey in believing diversity is imperative to CSE success, feeling respected and valued by primary supervisor ○ Increased confidence in science communication● Creation of career-centric vodcast library for international engineering studentsYear 2 Highlights:Two projects’ efforts were
Paper ID #45189Introducing a Virtual Dashboard to Benchmark and Monitor EngineeringGraduate Degree Retention Trends at Penn StateDr. Enrique D GomezCatherine G. P. Berdanier, Pennsylvania State University 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
materials, perform confined space inspections, and conduct specific taskswithin hazardous environments.IntroductionThe mechanical engineering department at UNMintroduced a new course in the spring of 2019 titled“An introduction to modern Mechanical Engineering,ME-150” to increase the retention of engineeringstudents. The objective of this course is to introduceengineering freshman students to the variousEngineering technologies related to mechanical Figure 1. 3Dengineering careers, while describing the science and Printing with 1,2 DOBOT’smath behind them . The class offers non-traditional Robotic Armeducation experience to the students, where morethan 80% of the class
tutoring systems increase student learning and engagement. AI techniques alsooptimize resources and improve educational institution operations, highlighting the importance ofintegrating AI thoughtfully [11]. Group InterviewsTwenty-two senior-level mechanical engineering students were interviewed in the Fall 2024semester. The interviews were conducted in two groups of eleven students each. About 50% of thestudents were finishing the BSME program that semester and the others anticipated finishing inSpring 2025 or shortly thereafter. All students described how they would be starting theirengineering career after graduation and none intended to pursue graduate studies. The students wereinterviewed in groups since
everyday life. This approach not only buildsknowledge but also inspires future careers in STEM fields and environmental stewardship.Students gain a comprehensive understanding of wastewater treatment by constructing small-scalesystems that incorporate sedimentation, filtration, and biological treatment. This activityintroduces key processes such as sedimentation, where solids settle due to gravity, reducingturbidity and preparing water for further purification. Filtration follows, using layers of gravel,sand, and activated charcoal to remove finer particles and chemical pollutants, helping studentsmeasure turbidity changes and understand how filtration improves water clarity. Finally, biologicaltreatment utilizes microorganisms to metabolize
engineering, and design for sustainability in theircurricula. By involving project-based instruction with hands-on applications that are reflectionsof true DoD issues, students will be better able to prepare for careers in aerospace and defense RQ2: Industry Focus: Which challenges should be the top priority to address?Among these, Security, Dependability, and Sustainability emerged as the most criticalchallenges, being associated with 69% of the budget allocation to CPS and UAV technologies.These three areas not only address critical operational needs but also align directly with all DoDCyber Strategy goals, showing where the defense industry should focus their efforts whenworking in CPS and UAV.The KEEN framework played an essential role in
undergraduate education enables students to complete projectsmore effectively and equips them with essential competencies for their future careers. By fosteringthese abilities, engineering programs can better prepare students to navigate the collaborative nature Proceedings of the 2025 ASEE Gulf-Southwest Annual Conference The University of Texas at Arlington, Arlington, TX Copyright © 2025, American Society for Engineering Education 2of professional engineering work. Therefore, integrating teamwork skill development into theengineering curriculum is critical to cultivating the next generation of engineers
continuouslearning. This approach prepares them to excel in academic endeavors and equips them with theskills needed to thrive in professional environments.In addition, Lean Six Sigma is a powerful methodology that equips students with the skills to excelin their careers by focusing on continuous improvement and operational excellence. By learningto identify inefficiencies and implement data-driven solutions, students gain a competitive edge intheir professional journeys. Lean Six Sigma’s emphasis on reducing costs and improving qualitydirectly translates to measurable business value, which is highly attractive to employers. Thiscapability not only enables students to contribute effectively to their early roles but alsodemonstrates their potential for
prospective students stand in front of it they will seethemselves as ONU Engineering’s future. All experiences will be controllable for the AssistantDean through the use of Bluetooth and two controllers (one acting as a beacon and the other as areceiver).The team is building these experiences during the spring semester. With these ideas, the teamhopes to bring intrigue and inspiration to prospective students touring the building. This projectwill give them a glimpse into what they can do with their engineering career as well as makethem the center of the storyline. The hope, too, is that this capstone project can be a continuedproject for future senior engineering students to expand upon.Problem DefinitionThe objective of this project is as follows
weakening of students' writing and criticaland centers for pedagogical sciences. Commitment to thinking skills. The ethics of learning analytics furtherlifelong learning should be encouraged by recognizing it involves issues like privacy, data management, andas a career development component for engineering consent. A major challenge in deploying AI in educationeducators. Most lifelong learning courses in universities is training educators of higher education and engineeringfocus on pedagogical resources, common computer to keep pace with technological advancements.software, tools for e-learning and blended learning, basic Additionally, concerns persist about AI replacingprogramming and language
obtained from physical systems. emphasized through validating computer simulation results atPrevious authors have described adding experimental projects to specific time points. Student feedback shows that studentsan introductory dynamics course, where students measured believe CAD simulations helps them understand problems,kinematics of physical systems using video data and increases their level of preparedness for their career, and thataccelerometers, and compared the resulting outcomes to they have a medium-high level of confidence for tackingpredictions made based on the theory presented in the course [7]. dynamics-based problems with hand calculations and computerI think
-Framework_Quickstart-Activity-Guide_2023.pdf Accessed 12.27.24[6] https://www.asce.org/communities/institutes-and-technical-groups/sustainability/sustainability-roadmap Accessed 12.27.24[7] https://www.abet.org/accreditation/accreditation-criteria/criteria-for-accrediting-engineering-programs-2024- 2025/ Accessed 12.27.24[8] https://www.asce.org/-/media/asce-images-and-files/career-and-growth/educators/documents/civil-engineering- program-criteria-commentary---feb-2024.pdf Accessed 12.27.24[9] Buildings & Infrastructure Priority Actions for Sustainability, Embodied Carbon – Concrete. Reference: 07762000-RP-SUS-0003. (2023) https://www.istructe.org/IStructE/media/Public/Resources/ARUP-Embodied- carbon
attends and presents refereed papers at international, national, and local professional meetings and conferences. Lastly, Najafi attends courses, seminars, and workshops and has developed courses, videos, and software packages during his career. Najafi has more than 300 refereed articles. His areas of specialization include transportation planning and management, legal aspects, construction contract administration, public works, and Renewable Energy.Dr. Rajarajan Subramanian, Pennsylvania State University, Harrisburg, The Capital College Rajarajan Subramanian currently holds the position of Associate Teaching Professor of Civil Engineering and Construction (SDCET) programs at Pennsylvania State University at
international, national, and local professional meetings and conferences. Lastly, Najafi attends courses, seminars, and workshops and has developed courses, videos, and software packages during his career. Najafi has more than 300 refereed articles. His areas of specialization include transportation planning and management, legal aspects, construction contract administration, public works, and Renewable Energy.Vani Ruchika Pabba, University of Florida Vani Ruchika Pabba holds a Master of Science in Computer Science from the Herbert Wertheim College of Engineering at the University of Florida, where she served as a Graduate Research Assistant. Her research focuses on artificial intelligence in education, including natural
construction and engineering programs, the incorporation of real-worldchallenges into academic discussions, and the enhancement of faculty-student engagement. Theinternship experience fostered stronger ties between the academic program and industry partnermembers and positively influenced student development by providing up-to-date content, newpedagogical approaches, and expanded career opportunities. Additionally, the paper underscoresthe importance of internships in promoting faculty professional development, strengtheningindustry partnerships, and advancing construction and engineering education. These internshipsplay a critical role in closing the gap between theory and practice, ensuring educators stayaligned with evolving industry standards and
at international, national, and local professional meetings and conferences. Lastly, Najafi attends courses, seminars, and workshops and has developed courses, videos, and software packages during his career. Najafi has more than 300 refereed articles. His areas of specialization include transportation planning and management, legal aspects, construction contract administration, public works, and Renewable Energy.Mr. Jack Cuilla, University of Florida Jack Cuilla is a freshman in the Department of Electrical Engineering at the University of Florida. His academic interests include renewable energy, solar technology, residential power systems, and energy conservation. He is particularly focused on gaining
graduated with a B.S. C.S. 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
]. Additionally, accreditation bodies have underscored theimportance of preparing future engineers to tackle issues of prejudice, racism, and discriminationin their professional careers [5], [6]. Despite this increased focus, integrating DEIJ content intoengineering curricula remains a significant pedagogical challenge. This difficulty arises from acomplex array of influences and contextual factors, such as faculty personal beliefs andexperiences about teaching and learning [7], beliefs on student achievement and ability [8],specific job responsibilities and departmental culture [9], and their course- or discipline-specificpriorities and needs [10], [11]. Moreover, perspectives and conceptions of equity greatlyinfluence their teaching practices in STEM
) demonstrated the impact of inclusive educationalprograms in STEM, where a seminar and toolkit provided students and early-career professionalswith a safe space to develop inclusive communication skills while highlighting the structuralbarriers that persist.This study aims to describe and highlight how a seminar focused on JEDI can strengthen theeducation of future sustainability minded engineers. Therefore, this work addresses the followingresearch question: how does a seminar focused on Justice, Equity, Diversity, and Inclusion withina sustainability engineering program influence students' learning and understanding of JEDIprinciples in sustainability?In this paper, we share a descriptive study of student learning in a JEDI seminar offered within
feel that my teaching career is at a place where I can begin to reflect and Feeling ready to add improve on the past few years. reflection into • Reflection is very important as an educator to improve and learn from teaching practice previous iterations of courses.The CoP met once per month for 3 months to review literature, complete self-assessments, anddiscuss prior experiences. Each session focused on one of the reflection modes: (1) self-reflection, (2) reflection with colleagues, and (3) reflection with or by students, but discussioncrossed over. The group discussed the vulnerability of reflection and established norms for thegroup early on. The group committed to journaling about the experience to document
reflective of the diverseinternational student enrollment with economic and policy pool of applicants, consisting of 31.2% from Connecticut,influences at a Midwestern U.S. university using the Seasonal 35% from other United States states, and 33.7% international.Autoregressive Integrated Moving Average (SARIMA) model. In order to maintain student privacy, all institutional recordsThe study discovered that tuition increases had a relatively were anonymized, or all personally identifiable informationlow impact on international student enrollment, suggesting was deleted. The dataset was also audited for regional bias,that factors such as academic reputation and career prospects and no statistically
such as MIT and Stanford integrate these modelsinto STEM curricula, fostering real-world application and skill development [19].A study by the National Academies of Sciences found that PBL students score 10–20% higher onproblem-solving assessments than those in traditional courses. Additionally, PBL promotesessential soft skills such as teamwork and leadership. As a result, IBL and PBL have becomecornerstones of modern education, equipping students with the skills needed for success in anincreasingly complex and interconnected world. By structuring curricula around inquiry andproblem-solving, educators can equip students with technical expertise and collaborative abilitiesnecessary for careers in science, engineering, and business. The graph
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
implementing technologicalsystems. They have a unique opportunity to apply insights from accessibility research directly toreal-world applications [79]. By translating this extensive body of research into actionablesolutions [80], including policy findings turned into practical applications [81], practitioners cansignificantly enhance the experiences of users who rely on accessible technologies—particularlythose pursuing careers in STEM fields [9]. For instance, accessibility improvements incollaboration software or data visualization tools facilitate more equitable participation for DHHindividuals in both educational and professional STEM environments [2], [82]. This approach notonly supports DHH users but also enhances the overall user experience
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
issues related to ensure equitable accessibility. To addressdesigners and engineers an opportunity to apply mathematical these challenges, institutions need to consistently makemodels, validate the physics and behavioral constraints of significant investment in infrastructure and technologicalprinciples, and test engineering theories as they apply to real adaptation to stay current. The results are graduates withscenarios. This not only applies to testing circuit designs, but significant technical proficiency, improved problem-solvingproficiency, and critical skills that pay dividends throughout challenging to provide students with an adequate learningan engineer’s career
to effectively work in teams without thestudents being required to work on sets of individual tasks [22]. Such applications show thatgamification does not need to be applied to individual assignments of a class. Instead, it canfunction as the framework for extra-credit work and self-study. Additionally, the spread ofmotivations previously revealed indicates that students actively took part in additional class workfor the purpose of learning without being primarily motivated by the other benefits.Math EducationMathematics is a subject that is central to a wide range of careers and STEM classes. Onecomponent of gamification is the aim towards making education more enjoyable, improvingengagement, and allowing more information to be retained [23