through online channels, including socialmedia, school networks, and community organizations. No prior coding experience was required,which allowed for a diverse group of students. In total, the camp hosted 17 students in 2023 and11 students in 2024, reflecting a range of genders, backgrounds and skill levels.The camp spanned two weeks, with daily two-hour sessions conducted entirely online. Eachsession was designed to be highly interactive, incorporating live instruction, hands-on codingexercises, “concept surveys” (quizzes), collaborative learning opportunities, and "papercraft"activities. The curriculum was structured around the P5.js library, an open-source JavaScriptlibrary and free online editor that facilitates creative coding through
: Course Development • Notes: The development of our First Year Seminar (FYS) course began with identifying the specific needs of first-generation students. We used evidence-based models, including Tinto's Model of Student Integration and Schlossberg's Transition Theory, to guide our curriculum design. Our focus was on creating a holistic learning experience that not only addressed academic needs but also fostered personal growth and community building.Slide 5: ModelsTinto's Model of Student IntegrationTinto's Model of Student Integration, developed by Vincent Tinto, is a theoretical frameworkthat explains how students' interactions with their academic and social environments influencetheir persistence and retention in
Academy Dr. Jonathan Adams is an Assistant Professor at The United States Military Academy at Westpoint where he assists in the direction of the writing program. Dr. Adams specializes in rhetorical theories of persuasion, especially as they relate to the fields of engineering and technical communication. His work in business communication and marketing practices in engineering has been used internally by multiple U.S. Universities and he is an active participant in ASEE’s push for the integration of writing and rhetoric with engineering. ©American Society for Engineering Education, 2025 Bridging Abstract Mathematics and Practical Engineering Design:A Pre-Capstone Project to Enhance
Paper ID #49550Closing the Gap through Guided Pathways into the Engineering and ComputerScience WorkforceDr. Nandika D’Souza, University of Texas at Dallas Nandika Anne D’Souza is Professor (2024-present) of Mechanical Engineering and Associate Dean of Strategic Initiatives at the University of Texas at Dallas. She received her doctorate from Texas A&M University, College Station and her M.S. from Auburn University in Mechanical Engineering. Her research is focused on polymers and composites directed towards integrating sustainable, recycled and new combinations of materials for design, performance and manufacturing
use of the faculty internship to identify and define subjectareas not currently in the construction curriculum and finds that prospective employees shouldbecome more competent in demolition. Holliday, Reyes, and Robson [2] provide insight intodeveloping an industry-academic internship program to allow faculty to gain general and BIM-specific construction experience. They found that students could receive a direct benefit becauseof this program. Manion [10] found that a summer faculty internship in the construction industryprovided valuable opportunities for improving quality, planning, and productivity throughfirsthand involvement with a heavy earthwork contractor. The internship included site visits,productivity analysis, and surveys of
of open-ended lab experiences and contributes to thegrowing conversation on innovative engineering education strategies by demonstrating the valueof experiential learning approaches, particularly the integration of entrepreneurial mindsetlearning (EML) into laboratory experiences.Why open-ended labs?The decision to introduce open-ended labs into our curriculum was inspired by the insightsgained from the Summer 2024 Engineering Mechanics in Lab and Design workshop series,hosted by the University of Illinois Urbana-Champaign and supported by the Kern FamilyFoundation. During this workshop, we had the opportunity to explore in more depth the conceptof open-ended labs, engaging with experts and educators who have successfully implementedsuch
LessonsAbstractEducators must prepare the next generation of engineers who will inherit a world that will bedifferent from the present. Research shows that Civil Engineering students often lack sufficienttraining in climate science. To be successful, graduates need training in evaluating hazards fromextreme winds, waves, and rain, and understanding climate change risks. At The Citadel, climatechange impacts are integrated into several lessons in an introductory Geotechnical Engineeringcourse. This paper demonstrates how climate change education can be integrated across thecurriculum by redesigning lessons using backward design and implementing active pedagogies,including pre-lesson, in-class, and post-lesson activities. In addition, it will provide insights
may be concluded that proper curing and rebarplacement are important for RC strength and durability. Non-destructive methods like GPR areeffective for assessing concrete integrity. Teachers implemented the information into their classroomlesson plans and hands-on student activities involving physical and biology experiments. Thisapproach will bridge practical experiences with theoretical knowledge, sparking student interest inengineering careers. IntroductionReinforced Concrete (RC) is the most used construction material for various types of structures.The concrete cover above or below rebars play an important role in structural safety and durability.It may be necessary to find the actual covers in
transitions, tolerances, internal forces, component spacing andgeometry as important factors in the mechanism’s proper functioning. Then they created newmethods for integrating this design into their robotic platforms, by rotating the axis of oscillation,developing methods of flexible casting, and experimenting with new fin geometries. Lookingback at the end of the semester, students documented important lessons learned in the adaptationof the original mechanism and reflected on their improved understanding of mechanical systems.Introducing students to fundamental aspects of mechanical design and analysis as an earlysemester, structured lecture became an obvious means of improving project success later on. Theinnovative results of this semester’s
A. Artificial Intelligence in Education (AIED)perspective of technology management. Drawing oninterdisciplinary insights from cybersecurity, policy, and Generative AI received widespread attention in recentmanagement, this study proposes an integrated framework that years, and educators have had to address its impact quickly.guide institutions for strategic AI adoption. The proposed Teachers and school administrators now face two criticalAIOEP is based on Open Educational Practices (OEP) and uses questions: Should generative AI be banned, and should schoolsFree and Open-Source Software (FOSS) as its educational adopt tools to detect its use by students? According tofoundation. With
the clicker study where questions from the end-of-course evaluations did notreveal any apparent differences between the clicker and control classes2. The NSSE annualsurvey of freshmen and seniors asks students how often they have, for example, participated inprojects that required integrating ideas or information from various sources, used e-mail tocommunicate with an instructor, asked questions in class or contributed to class discussions,received prompt feedback from faculty on their academic performance, participated incommunity- based projects, or tutored or taught other students. The findings are used todetermine how successful a university is at engaging students4.Sometimes student feedback contradicts the results associated with
nucleation cold stage freezingassay device was developed at the University of California, Riverside (UCR), an R-1 institution.The methodology used in this paper evaluated an approach to implement lab based modularactivities in non-R1 institutions. By integrating this framework, atmospheric science departmentsat non-R1 institutions can engage in ice-nucleating particle (INP) and ice nucleation processesresearch. This inclusion can contribute valuable data to the broader scientific community, fosteringcollaborations between smaller institutions and research-intensive universities, broadening accessto advanced experimental techniques used in atmospheric and environmental sciences.Furthermore, equipping non-R1 institutions with state-of-the-art research
. IntroductionThe increased use of microcontroller systems in solving industrial control problems has led to ageneral acceptance of microcontroller knowledge in other areas of engineering such asmechanical and biomedical engineering. An area that has normally been reserved for electrical orcomputer engineers is now multidisciplinary [1], integrating digital electronics, communications,and computing with a variety of systems ranging from medical to biological. With these newenhancements, microcontroller-based teaching has evolved over the past few decades. Thesechanges range from project-based microcontroller teaching that emphasize real worldapplications to the introduction of new educational tools such as robot kits. This new approach toteaching about
body kinematics, Newton’s Second Law for rigid bodies,and rigid body work and energy. The design of ALMs integrates video lectures, interactivequestions, activities, and tailored feedback to guide students through these topics and improvelearning outcomes. The component sequence of each ALM can be seen in Figure 1, serving as ablueprint for the structural components of each ALM.Figure 1. A schematic showing the principle components and sequencing of the online learning modulewith adaptive learning interventions.Intro VideoEach module begins with an introductory video that connects the topic to a real-worldapplication, highlighting its impact beyond the classroom. In most of these, we highlight thework of a female or other non-traditional
in market share and products which were undesirable. ABET, the Accreditation Board for Engineering and observational notes after conducting these projects in theirTechnology, in its 2020-2021 Criteria for accrediting classes.engineering programs, made an emphasis on how importantinterdisciplinary skills are in engineering education [1]. In the At the start, professors conducted meetings on how toStudent Outcomes [3] and Faculty [6], ABET discusses that integrate these multidisciplinary team projects into theirteamwork, communication, and interdisciplinary cooperation syllabus. The Industry Advisory Board recommendations wereare the key. Modern world problems are more complex
mobile devices. Underfunded schoolslack the resources to provide these sorts of devices to all students or even to entire classrooms. This leavestheir students at a disadvantage for learning when compared to students from well-funded schools.Math Quest aims to solve this issue. We have created an inexpensive, effective learning tool to assiststudents and teachers at underfunded schools. When looking at other products in this market, our teamwas surprised to see how clunky and unengaging they were. This led us to design Math Quest to resemblea handheld game controller. We chose this shape since game controllers are a tried and true handheldproduct design that prioritizes comfort, modularity, and ease of use. This design also lets us
fosters an inclusive, supportive educational environment designed toretain diverse talent in mechanical engineering.Introduction:Retention and recruitment remain pivotal challenges within engineering education, particularly inmechanical engineering, which often experiences lower retention rates than other engineeringdisciplines. The demanding curriculum requires mastery of core subjects, especiallymathematics, chemistry, and physics, within the first year, and early academic success in thesesubjects is strongly correlated with long-term retention and degree completion [1], [2].Misplacement into inappropriate courses can impede student progress, undermining bothacademic outcomes and persistence.Mechanical engineering programs typically rely on
-on project also sparked interest in cutting-edge innovations. Engagingstudents in these activities not only deepened their technical knowledge but also enhanced theircritical thinking and problem-solving skills, better preparing them for future challenges in theengineering field. Pedagogical Framework in MentorshipMentoring initiatives in engineering education can be effectively designed and structured byintegrating mentors’ design work and expertise directly into the curriculum. For example, in an"Introduction to Computer Engineering" course, mentors can contribute by presenting theirdesign projects as case studies, offering students practical insights into real-world applications.Guest speaker sessions and
sustainability and its incorporation into engineering curricula and engineeringdesign are of paramount importance across all engineering disciplines due to several factors,such as environmental protection, resource management, economic benefits, innovation/competitiveness, and social responsibility. Furthermore, with the increased focus onaccreditation criteria emphasizing engineering ethics and professional responsibilities across allfour ABET commissions, the topic of sustainability has been considered an essential addition tothe engineering technology curriculum. The engineering department at Cuyahoga CommunityCollege (Tri-C) initiated the process to determine how sustainability can be included in thecurriculum. The process was executed in the
suggested outlinecovering an overview of the major, curriculum highlights, career pathways, and examples ofresearch or applications, but retained flexibility in delivery. A typical session included a lecture-style slide presentation, discussion of curriculum and degree requirements, descriptions ofprojects or specializations, and a brief Q&A if time permitted. This format prioritized consistentexposure to departmental information while allowing presenters to showcase their programs’unique features. However, no structured in-class interactive elements were consistently usedacross sessions, and engagement activities such as job fairs or department visits wererecommended but optional.3. Results and DiscussionThis section presents a detailed
wenzhuop@usc.edu Department of Aerospace and Mechanical Engineering University of Southern California Elizabeth Finley edfinley@usc.edu Department of Aerospace and Mechanical Engineering University of Southern California Bocheng Jin bochengj@usc.edu Department of Aerospace and Mechanical Engineering University of Southern CaliforniaAbstractIn an Aerospace and Mechanical Engineering program, a tailored curriculum adaptation wasintroduced to
survey at the end of the visit. Therefore, the data includes feedback on all aspects of the campus visit, not just the hands-on activity. However, the authors are confident that the students enjoyed this activity and would be interested in future opportunities. School teachers who assisted in the hands-on activity mentioned that the use of Arduino to teach circuit concepts was the best approach. The use of schematics and demonstrations using TinkerCad was something they would be interested in adopting in their curriculum. An English teacher was assisting the hands-on activity and said he didn’t find it difficult to follow along and assist students in building and testing the code. In the future, after completing the workshop
introduced innovative approaches to supportingstudents with disabilities 1,2 , particularly through the use of visual instruction 3,4 . Visual instructionleverages diagrams, step-by-step guides, and other graphical aids to complement traditionalteaching methods, making learning more accessible for students who face challenges inauditory-based education. For hearing-impaired students, visual instruction plays a critical role inbridging the gap created by their limited access to verbal explanations during lectures 5,4,6 .Thispaper explores the use of visual instruction in AME308: Computer-Aided Design (CAD), afoundational course in an aerospace and mechanical engineering curriculum. The course, whichheavily relies on Siemens NX software, integrates
, strategy, and problem-solving. While Tic-Tac-Toe AI games effectively introduceWhen integrated with AI, it becomes a powerful tool for students to AI principles, their long-term impact on AIteaching computational thinking and decision-making [13]. learning and career development remains uncertain [28].Integrating AI-driven educational tools has transformed Studies suggest that while initial engagement levels are high,learning methodologies, particularly in game-based learning. it is unclear whether this translates into sustained interest in AIOne study by S. Jain and N. Khera highlights that adapting or improved academic performance in advanced AI coursesTic-Tac-Toe into an AI-driven experience
defining what counts as fundamental knowledge. Acolleague once referred to our undergraduate education as “the grind” which students had to getthrough in order to be able to function as an engineer. Is the grind necessary in the era of easilyaccessible information? Who are we weeding out by requiring internalization of facts?Consider calculus 1 and 2 which are required for just about every engineering student. Finding acentroid is part of every good integration lesson, yet students get to basic courses without the firstidea of how to do that calculation or how centroids relate to balance points or centers of gravity.Should those basic math courses actually be required? Consider the freedom that a program wouldhave if the 6-8 credit hour courses
. 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
and associated projects are presented in Table6 as an example of what is possible. Intangible course outcomes include statements from PTXstudents that the new course was the “most valuable course they took” in their program.ConclusionsThe integration of design project-based learning, problem-solving, and peer review into graduate-level statistics education at Wright State University has provided a robust framework foraddressing traditional challenges in the field. Through these methods, students not only gainedtechnical proficiency in statistical tools and methods but also developed critical thinking,collaboration, and communication skills. Evaluation of these approaches showed promisingoutcomes, with increased student engagement and improved
concerns by providinga structured framework for matching students with appropriate projects and eliminates the time-consuming steps students previously faced. Aligned with UTSA’s broader “Career-ReadyRoadrunners” initiative, EZ-RA integrates experiential learning into the undergraduate curriculum,enhancing student readiness for professional careers and the department’s ability to deliver cutting-edge STEM education. Through EZ-RA, students gain accessible pathways to research, whilefaculty are empowered to mentor and collaborate effectively, fostering a sustainable model forundergraduate research excellence. Barriers to Undergraduate Research ParticipationThe current system for undergraduate research in the Electrical and
3.09 3.77 1.00We also visualized all the students’ networks. (See Figure 1 for three examples.) The networksdepicted who the alters were, the content of the relational ties, and the overall structure of thenetwork. Visualizations allowed for an examination of network structure and components,particularly whether students’ networks on campus overlapped structurally and to what degreethey were integrated. Individual student networks are also useful to institutional personnel inworking with specific students on their support networks and strategies. Findings indicated thatfirst-year students exhibited a range of network structures, generally spanning those from“home” and newly created networks in the college environment, which
undergraduate level or in earlier stages of higher education.Development of academic, social, and research self-efficacy within undergraduate students eachplay a key role en route to graduate school enrollment.MentoringGraduate degree attainment requires guidance which can be derived from an approachencompassing intervention and integrated support strategies led by experienced people.In Assessing the Effectiveness of the GradTrack Virtual Mentoring Program, Arinze et al.provide a survey-driven GradTrack program evaluation. The purpose of the paper is to provide aprogram evaluation of the current state of Purdue Engineering’s GradTrack program. While stillin the initial stages of development, Purdue Engineering’s GradTrack program has proven