infarct-related ventricular tachycardia,” Nat. Biomed. Eng., vol. 2, no. 10, pp. 732–740, Oct. 2018, doi: 10.1038/s41551-018-0282-2.[8] P. Hunter et al., “A vision and strategy for the virtual physiological human: 2012 update,” Interface Focus, vol. 3, no. 2, p. 20130004, Apr. 2013, doi: 10.1098/rsfs.2013.0004.[9] “Living Heart Project | SIMULIATM - Dassault Systèmes®.” Accessed: Jan. 11, 2025. [Online]. Available: https://www.3ds.com/products-services/simulia/solutions/life-sciences-healthcare/the-living- heart-project/
solutions were provided in class. This practice not only allowed students to check their MathCAD calculations but also required them to input the necessary equations into MathCAD. 4. Weekly homework problems were required to be completed using MathCAD. 5. All projects and exams were required to be completed using MathCAD.To assess the effect of MathCAD on students' learning experience, a survey was distributed to 25students enrolled in the course. A total of 20 students completed the survey. The survey includedboth quantitative and qualitative questions, focusing on various aspects of student learning, suchas time saved, ease of use, and improvements in conceptual understanding. Specific questionsexplored the following areas
) • Build and race RC cars (include points for reusing materials; reflection) Interest • Projects (e.g., off grid solar project) • How things are made associated with hobbies, sports (e.g., Legos) • Current events (e.g., inflation, Ukraine) and quotes (discuss agree / disagree) • Historical perspectives (e.g., Legos, Light Bulb Conspiracy)One interviewee with over 25 years of teaching experience across two different universitiesasserted, “The biggest lesson for me was that [sustainability] has an emotional profile which youcannot disregard. …. some students changed their lives …. account for that …. You are givingpeople a look into the future and it really is
Albany (SUNY) where she conducted research on the cultural factors that contribute to inequalities in engineering. As a postdoc at Bucknell University, she was the resident ethnographer in the Electrical and Computer Engineering Department, exploring applications of Amartya Sen’s capabilities approach in engineering education. Her current book project, On the Bleeding Edge: Gender, Immigration and Precarity in Semiconductor Engineering, investigates the intersections of gender, race/ethnicity, and immigration status among semiconductor engineers.Dr. Rebecca Thomas, Bucknell University Rebecca Thomas is the inaugural director for the Pathways Program at Bucknell University, where she oversees the rollout of Bucknell’s
identitiesIntroductionIntroductionDespite the steady increase of minoritized populations in the United States in the past few years[1], the field of engineering continues to struggle with a lack of diversity among bothpractitioners and students [2, 3]. This homogeneity has resulted in significantunderrepresentation in thought and epistemology within engineering practice [4].Because engineering has traditionally prioritized problem-solving, without critical awareness ofits possible consequences, engineering solutions often continue to fail to adequately meet theneeds of underrepresented populations and create projects that disproportionately and negativelyimpact marginalized communities [5-7]. For example, the design of pulse oximeters has notworked as well in people with darker
exploring the convergence of art and technology, with international acclaim for her projects showcased at esteemed venues like the National Folk Festival. Holding an MFA from Vermont College of Fine Art and an MA from Monash University, Krieger’s practice spans robotics art residencies and workshops at prestigious events like ICRA 2024. Her work has been reviewed in prominent publications including The Art Blog, The Philadelphia Inquirer and Hyperallergic.Cynthia Sung, University of Pennsylvania Cynthia Sung is an Associate Professor in the Department of Mechanical Engineering and Applied Mechanics (MEAM) and a member of the General Robotics, Automation, Sensing & Perception (GRASP) lab at the University of
resulted in a long-term friendship that helped them in choosing other classes, projects, and internships. The classfamilies did group quizzes each week to teach each other what they learned in class during thatweek, did labs together, and prepared for exams together, to name a few. In my observation, theclass families approach helped the students manage their academic stress better and provided areliable support system, ultimately contributing to student retention and academic success. Thepaper also includes the results of a student survey on their perceptions of the class familiesapproach. It further discusses some of the challenges associated with this approach. My preference is Lessons Learned- lightning talk.Introduction Although
sharpenproblem-solving skills and larger programming projects. These projects not only challengestudents technically but also foster collaboration and the development of soft skills critical fortheir future careers.This study was designed with minimal disruption to existing courses in mind. Our primary goalwas to ensure that the number of assignments and their weight toward a student’s grade remainedlargely unchanged. This consistency allowed for uniform grading and facilitated astraightforward comparison between sections implementing the modified structure and thosefollowing the original format.A secondary goal was to minimize the additional workload for instructors adopting the revisedcourse structure. Instructor workload was measured by the time
cutting-edge AI applications. • Research and Innovation: Encourage and support faculty and students to undertake AI- focused research projects, explore interdisciplinary applications, and push the boundaries of AI both within and beyond the classroom. Figure 1: rAIder Strategy Impact Areas. The strategy addresses Academics, Research & Industry, and Community Engagement areas. Institutional Operations are outside the scope of the rAIder strategy.“Do Now” – Planning and Initial Deployment PhaseThe “Do Now” phase of the rAIder strategy focuses on establishing a strong foundation for AIintegration at MSOE. It includes hiring a Director of Applied AI Education, forming agovernance structure, which includes an AI
,” ETR&D, 2000, 48, 63–85.[13] O. Lawanto, & S. D. Johnson, Students’ cognitive self-appraisal, self-management, and the level of difficulty of an engineering design project: Are they related? Proceeding of the 116th Annual ASEE Conference & Exposition. New York: American Society of Engineering Education, 2009.[14] O. Lawanto, Self-Management of Cognition in a Team-Based Engineering Design Project: A Case Study. Proceedings of the 114th Annual ASEE Conference & Exposition: Riding the wave to excellence in engineering education. New York: American Society of Engineering Education, 2007.[15] R. Azevedo, R., J. G. Cromley, and D. Siebert, Does adaptive scaffolding facilitate students’ ability to
enrolledIn addition, the RISE Scholars were surveyed about their career or graduate school placementsby the project PIs six months after graduation.Student’s t-test was used to compare the mean values of numerical variables such as GPA andSAT scores between the RISE and control groups. Fisher’s Exact Test was used to comparebinary variables such as 4-year graduation and participation in other programs.The RISE Scholars significantly outperformed the control group on all outcome measures. Toexamine whether their superior outcomes can be attributed to participation in the RISE program,and not solely to their academic talent (which is a criterion for any S-STEM recipient), linear andlogistic regression were performed to predict final cumulative GPA and
Paper ID #47031BOARD # 393: Mentoring as a Support Tool for Low-Income EngineeringTransfer students in an S-STEM programAnna-Lena Dicke, University of California, Irvine Dr. Dicke is an Associate Project Scientist within the School of Education at the University of California, Irvine. In her research, she aims to understand how students’ motivation and interest in the STEM fields can be fostered to secure their educational persistence and long-term career success. Trying to bridge the gap between theory and practice, she is currently involved in an NSF-funded project aimed at fostering the persistence and retention of low
, Thread 0 continues to make the Patch penguin spin despite thecompilation error in Thread 1.We designed Patch to balance familiarity and advancement, helping learners maintain creativeagency during their transition to text-based programming. Through this design philosophy, wehope that students can create interactive stories and games similar to their Scratch projects whilelearning Python fundamentals. We chose a web-based implementation with visual feedback toreduce technical barriers while supporting an experimental, iterative learning style. To explorewhether these design choices effectively support the block-to-text transition, we present apreliminary qualitative study investigating Patch’s classroom implementation and providerecommendations
equipment and virtual simulations? 2. Why do potential users choose to use one ormore parts of the dynamics and control learning package? 3. Which element or combinations ofelements in the dynamics and controls learning package are most beneficial for its users?3. Results. Since the beginning of the project (April 2024), we implemented our previouslydesigned pendulum and its learning activity as a homework assignment in a System Dynamicsand Control Theory course taught by the principal investigator. Additionally, we designed anddeveloped a new control lab equipment which has been implemented in the Embedded DigitalControl course taught by the other principal investigator at Kennesaw State University and with afaculty in the Introduction to Robotics
Figure 1. In this project summary (NSF EHR:BCSER #2225306), we briefly describe the culturallyresponsive gamified activity and provide an overview of its effectiveness of how the activitysupported migratory adolescents’ engineering interest, self-efficacy, aspirational engineeringidentity, and engendered positive perceptions of using engineering as a tool for social justice.Activity OverviewThe activity’s effectiveness stemmed from its culturally responsive and gamified approach, whichresonated with the unique experiences of migratory high school students. By providing asupportive space for problem scoping, brainstorming, prototyping, and evaluating, we created anenvironment where students could apply their perspectives to a real-world
solved a graded activity. • Reactor Design was taught with video lectures before class, and class time was used for instructor-led example problems along with occasional, multiple-choice conceptual questions. • Process Control was taught with video lectures before class, and the professor worked an example in class before the students worked a graded problem in groups during class.All three courses had traditional homework, exams, and design projects. We surveyed the entireSpring 2024 class of 17 students in Fall 2024 to assess two items: 1) the student preferences forthe various teaching methods, and 2) the differences between faculty intentions and studentperceptions regarding the teaching methods used in each class
, design, and technical skills. After this firstsemester, students earn their degree while working in a co-op and earning an engineering salary(average $21.5k per semester). Students remain full-time students through the co-op basedlearning format by taking 1-credit hour technical competencies and design, seminar, andprofessionalism coursework. They earn course credit for coursework related to their valuableco-op experience by applying and further developing their professional, design, and technicalskills. Approximately 97% of students obtain a co-op in the first semester after Bell Academy;however, students who do not obtain a co-op complete industry projects to develop skills andearn credits through this experience.After five semesters at IRE
Paper ID #45798BOARD # 451: S-STEM: Building and supporting a robust transfer pipelinein Computer Science, Mathematics, and PhysicsDr. Stan Kurkovsky, Central Connecticut State University Stan Kurkovsky is a professor at the Department of Computer Science at Central Connecticut State University. He earned his PhD from the Center for Advanced Computer Studies of the University of Louisiana in 1999. Results of his doctoral research have been applied to network planning and industrial simulation. Dr. Kurkovsky served and continues to serve as a PI on a number of NSF-sponsored projects, including four S-STEM grants, three IUSE
Paper ID #49215BOARD # 459: Supporting NSF S-STEM Scholars: Longitudinal Data onStudent Services and Cohort Activities; conference participation; communityoutreachDr. Jingru Benner, Western New England University Dr. Jingru Benner is currently an Associate Professor at Western New England University (WNE). Before joining WNE she worked at Corning Inc as a research scientist. In addition she has been a consultant for various industries. Dr. Benner received her Ph.D. degree in Mechanical and Aerospace Engineering from Rutgers University. She has been working on various projects in the thermal-fluid field. Dr. Benner has more
the Massachusetts Health Information Exchange. At Wentworth, Dr. Feldman is focused on project-based instruction, hands-on simulations, experiential learning approaches, and first year curriculum. Dr. Feldman is one of the lead instructors for Introduction to Engineering courses, with enrollments in the hundreds each fall. His research and teaching interests, in addition to first year engineering, include telemedicine, health informatics, rehabilitation engineering, and medical robotics. Dr. Feldman has collaborated with researchers and engineers from organizations including Tufts School of Veterinary Medicine, Boston Children’s Hospital, Vecnacares, and Restoreskills.Dr. George D. Ricco, Miami University
undergraduate, whether or not serving a particulardemographic group) from across the US: Lafayette College, The University of the Pacific,University of Georgia, Bridgeport University, The College of New Jersey, WorcesterPolytechnic Institute, Northern Arizona University and University of Nebraska-Lincoln. Eachschool agreed to have between 5 - 10 faculty members in their engineering and/or engineeringtechnology programs go through the process to receive the “Registered Engineering Educator”designation.While piloting the REE level, the project team will also engage in research activities to generateinsights to guide next steps in this framework implementation as well as to inform similar efforts.The four research questions associated with this grant are
premade prompts and provided access to GPT-4.0. In Spring 2024,3 additional course instructors were provided with the tool and curricular materials for use attheir discretion. Each instructor taught at least two sections of approximately 20 students each.ToolOur digital writing tool (redacted) allows students to interact with generative AI—specifically alarge language model (“LLM”)—through pre-designed, embedded prompts that guide theinteraction between students and AI (Figure 1).Figure 1.Description of the key components of the digital tool, PapyrusAI, created for this project. What is PapyrusAI? PapyrusAI is a web-based tool built on top of a commercially available AI model (currently, GPT-4o) that: ● Scaffolds and supports improvement in
at University of Wisconsin – Platteville. He received his Ph.D. in Systems and Engineering Management from Texas Tech University. Gana’s research interests are in engineering education, learning analytics, and novel use of data analytics in decision making.Ingrid Scheel, Oregon State University Ingrid Scheel is a Project Instructor at Oregon State University. She works to teach from an integrated sociotechnical perspective in engineering science and design courses. Her focus is systems engineering and program management. Scheel has experience in small business strategic planning and risk assessment, designing and deploying fiber optic sensors and sensing systems, prototype development, instrumentation, data
historicallyexclusive fields like engineering, can be far from ideal. While HSIs are a vital resource inincreasing Latino/a/x representation in higher education, the promise of servingness is oftencompromised by the same systemic inequalities that exist across U.S. higher education morebroadly [5]. This EEC CAREER research project, now in its fourth year, seeks to critically examinethese dynamics by focusing on the experiences of Latino/a/x engineering students at HSIs in theU.S. Southwest region. This region, with its rich Latino/a/x history of both resilience andresistance [6, 7], serves as a particularly relevant context for understanding both theopportunities and challenges of HSIs in serving their primary demographic. By examining howrestrictive
through playful exploration of sound. He is also a science-of-sound artist and performer.Dr. Linlin Li, WestEd Dr. Linlin Li, Research Director at WestEd. has more than 20 years of experience in research, evaluation, and consulting, including key roles on cross-site, multi-year federally funded projects. Her research work focuses on the areas of developmental psychology, math, science, and social-emotional interventions, and family engagement. Her recent work involves using interactive games to design and evaluate interventions for students living in poverty and at risk for academic difficulties. She received her PhD in Human Development and Family Studies from the University of North Carolina at Greensboro.Susan Yonezawa
anddynamics from 2021 to the present, while historical data from the CW was used forthermodynamics questions. Questions ranged from 49-80% correctness; further details areprovided in Table I and Figures 1 and 2. TABLE I CONCEPT QUESTIONS ANALYZED IN PROJECT Domain Question ID Topic No. Responses Statics 4975 3-D Moments 54 4976 3-D Moments 53 Dynamics 5703 Friction 240 6141 Moment of
currentlysmall number of available units. This includes a fluidized bed column, a bead sedimentationprocess, and an evaporative cooler. These kits cover more complex mechanical principles thanthe previous four. The first demonstrates the pressure trends for a bed of fluidized beads. Thesecond simulates cell separations in dense suspensions using beads of variable size and color.The third provides an example of the impact of phase change, humidity and air velocity onthermal energy transport. Since the project started in 2018, we have collected data on student comprehension of theLCDLM topics by disseminating the modules to universities across the US and assessing studentknowledge via a set of pre- and posttests. Students were provided with
Paper ID #48557BOARD # 470: Work in Progress: RIEF - An Observational Study of StudentQuestion-Prompted Discussion to Identify Student’s Knowledge LevelMs. Sarah M Johnston, Arizona State UniversityMs. Thien Ngoc Y Ta She is a doctoral student of Engineering Education Systems and Design at a U.S. university at the Southwest. She has been working as a research associate for a project of the Kern Family Foundation at this university. She has taught for a technical collegDr. Ryan James Milcarek, Arizona State University Ryan Milcarek obtained his B.S., M.S. and Ph.D. in the Mechanical & Aerospace Engineering Department at
years, and developed courses in sustainability and project management. Her focus was on students’ professional development and support for underrepresented groups in engineering. ©American Society for Engineering Education, 2025 Examining the Link Between Spatial Skills and Verbal FluencyAbstractThis paper expands upon findings from prior exploratory research investigating the link, if any,between spatial visualization and technical communication skills. First-year engineering studentsat the University of Cincinnati enrolled in the second semester of a two-semester first-yearengineering program were invited to participate in the research. An online proctored survey wasdistributed to students
, Purdue Engineering Education Jennifer Heap is a Project Manager for SCALE K-12 at Purdue University’s School of Engineering Education. With a background in education, she is passionate about leveraging her experience to enhance STEM learning in K-12 classrooms. Jennifer is dedicated to fostering innovative approaches that inspire the next generation of learners and educators in the STEM fields.Rena Ann Sterrett, Purdue Engineering Education ©American Society for Engineering Education, 2025 SCALE K-12 Curriculum Pre-College Microelectronics Curriculum Units Developed Using an