therefore have an enormous impact on how computer science (CS)education is experienced by K-12 students. As a consequence, understanding the landscape ofthese standards is a crucial precursor to making sense of and improving CS education in theUS.While there have been studies of engineering education standards more broadly [1–3], researchfocused more specifically on computer science learning standards is much less common. A 2010report from the Association for Computing Machinery and CSTA explored whether and how CSwas included in state standards [4]. This work found that the US was not adequately preparingstudents for a society where technology was involved in nearly every facet of life, to the extentthat there had actually been a decline in the
7-12 activity guides Learning Goals • Engineering and technology ethical considerationsHELP vs HARM • Sociotechnical impacts of cellular agriculture innovations • Create claims and context from various Research and media sources consequence mapping • Consider multiple solutions (NGSS K-2-ETS 1-2) • Frame the problem
and Secondary Education NJ Rees is the Digital Literacy and Computer Science Program Coordinator at the Massachusetts Department of Elementary and Secondary Education. As a queer, disabled educator, with a masters degree in electrical engineering from Columbia University, they work at an intersection of privilege, experience, and passion for inclusion.Shaileen Crawford, CSforMA Shaileen Crawford is Deputy Director of CSforMA, Inc. Shay began her career as a software developer and is now a specialist in computer science education. She advocates for early, meaningful computing experiences for all students as a mechanism for improving equity and diversity in technology fields. ©American
Paper ID #45862Students as Sustainability Consultants: An Interdisciplinary Project for SustainableResidential and Commercial DesignDr. Matthew Aldeman, Illinois State University Matthew Aldeman is the Founding Associate Dean of the Illinois State University College of Engineering. Prior to joining the College of Engineering, Aldeman served as an Associate Professor in the Department of Technology, where he taught in the Engineering Technology and Sustainable and Renewable Energy undergraduate programs.Connii Dyar, Illinois State UniversityMatthew Hagaman, Illinois State University ©American Society
. Additionally, she serves as a research assistant in the Immersive Learning Lab, where she contributes to projects at the intersection of technology and education, creating innovative tools that foster interactive and engaging learning experiences. ©American Society for Engineering Education, 2025 [WIP]: Building a self-guided Virtual Reality learning tool for ElectromagnetismAbstractThe three-dimensional nature of electromagnetism concepts does not translate well totwo-dimensional platforms, making it difficult for students to build intuition about thesephenomena in traditional learning settings. Virtual Reality (VR), a simulated three-dimensionalenvironment, offers an
at the University of Florida (UF). She is also an affiliate faculty in UF’s Department of Electrical and Computer Engineering. She received her B.S. in chemistry from Seoul National University, M.S. in biomedical engineering from Johns Hopkins University, and Ph.D. in biomedical engineering from Georgia Institute of Technology. As an instructional associate professor, she was awarded several grants from the National Science Foundation (IUSE Level 1, IRES Track 1, I-Corps, and I-Corps for Learning) as principal investigator. She transitioned to tenure track in Fall 2023 to pursue her research interests in convergence in engineering education, global engineering education, and social issues in STEM research and
techniques. ©American Society for Engineering Education, 2025 Quest: Human Learning - A Framework for Incorporating Generative-AI Teaching and Learning Instruction in STEM Pre-Service Teacher Preparation (Evaluation)AbstractGenerative Artificial Intelligence (GenAI) offers tools to transform K-12 science, engineering,technology, and mathematics (STEM) education. Pre-service teachers are in a prime position tolearn about and engage with this emergent technology, preparing them to enter the workforce withknowledge on how GenAI can impact K-12 learning outcomes.This paper examines the implementation of GenAI teaching and learning instruction in acomputer science (CS) pre-service teacher
exacerbated in science, technology, engineering andmath (STEM) fields, particularly for underserved schools [4]. As states propose CS policies [5],many groups are concerned with how well the state will be able to implement the policy.One group that has explored this CS teacher shortage and policy concern is the ExpandingComputing Education Pathways Alliance (ECEP), a National Science Foundation (NSF)Broadening Participation in Computing Alliance dedicated to increasing equitable capacity for,access to, participation in, and experiences of computing education. One of the many questionsthe community has taken up is teacher capacity. For the purposes of this paper, “teachercapacity” refers to the availability of an adequate number of teachers well
field of ultrafastTHz his research focuses on THz spectroscopy and imaging, particularly for sensingapplications. In engineering education Dr. Cheville focuses on the engineering educationsystems and learning environments. Dr. Cheville is a member of the IEEE, ASEE, andsometimes the OSA. Fig.2. Dr. Alan Cheville Dr. Vinod Lohani is a Professor of Engineering Education and an adjunct faculty in Civil& Environmental Engineering department at Virginia Tech (VT). He received his undergraduateengineering degree in India, M.S. at the Asian Institute of Technology, Thailand and Ph.D. incivil engineering from VT. His research interests are in the areas of computer-supported researchand learning
) Author and Affiliation: Anonymized for ReviewAbstractThe BSEE curriculum integrates biology (science), Excel skills (technology), data analysis(mathematics), and problem-solving (engineering) within a 9th-grade integrated STEMframework. We implemented the curriculum in a high school elective course, Introduction toComputer Science. Students analyzed local deer mortality data and applied Excel functions toidentify trends. They created data visualizations to address real-world challenges. Such aninterdisciplinary approach connects STEM fields and bridges the gap between scientificknowledge, technological tools, and practical problem-solving skills. We evaluated the BSEEcurriculum using teachers’ self-assessments and peer evaluations. The
independent research skills.What concepts or knowledge about energy and automation technologies, and their applicationswere most surprising or valuable to you?• I was amazed by the large amount of solar energy our planet receives and the enormous potential for harnessing it. Based on my knowledge of automation and general engineering— particularly coding, 3D printing, and sensor technology—I’ve gained valuable insights into practical, cost-effective methods of improving current solar energy harvesting processes.• I learned about a lot of different types of renewable energy, such as heliostats or solar power towers, which use mirrors to concentrate heat for a boiler rather than convert it directly into electricity like solar panels.How
creativity and innovation while providing asafe space for students to experiment, learn from mistakes, and refine their approaches.Experiential learning transforms students into proactive, skilled professionals who are prepared tomake meaningful contributions to the renewable energy sector and drive the global transitiontoward sustainable energy solutions.3. Course DescriptionEGR657 Photovoltaic Systems is a three-credit course designed for graduate and selectedundergraduate students in electrical engineering, offering a detailed introduction to the rapidlyevolving field of photovoltaics. The course aims to equip students with an understanding of theprinciples, technologies, and applications of PV systems, preparing them to address the growingdemand
Paper ID #48813Clean Energy Education Research Methodology: Curriculum to Change Livesand Address Climate ChangeDr. Brian Patrick Murphy, SUNY Buffalo State University Professor Brian P. Murphy, Ed. D. PE, SSBB, is a highly trained, motivated, results-driven higher education and engineering professional. He is inspired to teach in high-needs social impact areas, sharing industrial, military, and professional engineering expertise. Dr. Murphy is teaching Engineering Technology at the State University of NY Buffalo State University. Passionate about process improvement and environmentally friendly energy sources. Education
Paper ID #48695Reimagining the ECE Curriculum by Bridging Technical Preparation, ProfessionalFormation, and University Mission for a Holistic Education: Pilot ImplementationDr. Shiny Abraham, Seattle University Dr. Shiny Abraham is an Associate Professor of Electrical and Computer Engineering (ECE) at Seattle University. Her disciplinary research efforts focus on the application of Internet of Things (IoT) technology and Machine Learning towards remote environmental monitoring, and soil and water conservation. Her pedagogical research revolves around leveraging technology trends to enhance interest in ECE, as well as
implement the FFT algorithm will also be discussed.The rest of the paper is organized as follows. First, existing work is briefly reviewed in thebackground section. The implementation is described in detail next, followed by assessmentplan. The paper ends with conclusion and future work.BackgroundEnabling technological advances in artificial intelligence, computing power and mass storage,computer-aided design, software analysis and simulation techniques, multimediacommunications, virtual reality, etc. have been identified as the most promising methods toimprove the development and delivery of electrical and computer engineering curriculum [3].It has now become a common practice to use technologies to enhance learning. For example,computer
. IntroductionElectrical and computer engineering courses, like many of their counterparts in science,technology, engineering, and math (STEM) fields, face challenges in improving the studentunderstanding of the subject matter. Some of these challenges include connecting the abstractconcepts that are covered in the classroom to real-life applications and systems; engaging thestudents in the learning process and easing the burden of long, abstract lectures; working withtangible objects such as circuits, development boards, electronic parts, etc. while presenting thetopics for the first time to students; and enhancing the soft skills, such as communication andteam working while delivering the engineering concepts.To address some of the challenges, many approaches
Paper ID #48980Using REU Program Evaluation to Foster Learning through ReflectionMr. Kent A. Wayland, University of Virginia Kent is an Assistant Professor in the Department of Engineering and Society, School of Engineering and Applied Science, at the University of VirginiaDr. Caitlin Donahue Wylie, University of Virginia Caitlin D. Wylie is an associate professor of Science, Technology and Society in the University of Virginia’s School of Engineering and Applied Science. ©American Society for Engineering Education, 2025 Using REU Program Evaluation to Foster Learning through
the engineeringdiscipline. If students are to engage meaningfully with technology after this course, a strongersense of identity as an engineer or maker is a desirable outcome. Identity and sense of belonginghave been tied to persistence with STEM subjects and long-term career success [13], [14]. Aheightened sense of belonging may translate into more confidence taking roles adjacent totechnical fields, working closely with practicing engineers.The present study sought to test three research questions (RQs) about students’ self-efficacy andsense of belonging.Research QuestionsRQ1: Does a non-major student’s self-efficacy change after completing circuit labs and acircuit design project?Self-efficacy is an individual’s belief in their capability
Paper ID #48697Campus and Community Decarbonization – Campus as a Living Classroomof Transformative Energy PerformancePeter John GarforthMichael A. Nealon, Henry Ford CollegeNicholas Paseiro, Henry Ford CollegeHerbert Sinnock, Sheridan CollegeDr. Lynn A. Albers, Hofstra University Dr. Lynn Albers is an Assistant Professor in Mechanical Engineering of the Fred DeMatteis School of Engineering and Applied Science at Hofstra University. Her previous academic contribution was as one of the founding five faculty/staff at Campbell University, helping the newly formed School of Engineering grow and establish roots in the community. A
discover design principles for software development tools that support psychological safety among engineers with social and emotional differences. This will be useful for fostering team learning, well-being, and productivity.JiWoong Jang, Carnegie Mellon University Joon is a Ph.D. student at CMU’s School of Computer Science, where he focus on understanding, designing, and building AI-equipped assistive technology (AT) and how such tools affect and alter existing social dynamics in intro- and extra-spective ways – tackling stigma, user-assimilation, and the AT adoption/abandonment problem through his research. ©American Society for Engineering Education, 2025 Investigating
this project, integrating remote education with PBL provides a robust framework for addressingSTEM education disparities. By leveraging technology and active learning methodologies, studentsin rural regions gain exposure to practical and theoretical STEM applications. Specific focus areasinclude: 1. Energy and Sustainability Projects: These topics resonate with rural students who often experience limited access to electricity. For example, designing sustainable microgrids serves both educational and community needs. 2. Interdisciplinary STEM Modules: PBL enables integration across science, technology, engineering, and mathematics, fostering holistic problem-solving skills. 3. Local Instructor Support
, andqualitative feedback emphasized the value of real-world problem-solving and peercollaboration. The use of low-cost materials, open-source software, and hybrid deliverymethods ensures accessibility and adaptability across diverse institutional settings.This framework offers a scalable and replicable model for transforming electromagneticsinstruction. Future work will focus on broader implementation, refinement of instructionalpractices, and the integration of emerging technologies such as augmented reality andmachine learning. The findings support the inclusion of interactive, hands-on methodologiesin STEM curricula to better prepare students for contemporary engineering practice.I. IntroductionElectromagnetics serves as a fundamental component of
. She founded and co-founded various programs to increase African American participation in STEM by exposing urban African American youth to science, technology, engineering, art and mathematics (STEM) in ways that supports their interest, confidence and knowledge in STEM and affirms their cultural identity. Additionally, Dr. Bailey has partnered with local community organizations to create and implement camps focusing on leadership development, critical thinking skills, cultural education, and physical training. She has been a featured speaker at numerous conferences and workshops, including the National Academy of Sciences workshop on engaging Black men and women in engineering. Dr. Bailey aims to advance racial
goals but also effectively prepare students for successfulcareers in their chosen fields.IntroductionABET accreditation [1] is a mark of distinction and quality assurance for programs in appliedscience, computing, engineering, and engineering technology. It signifies that a program meetsthe rigorous standards set by ABET, ensuring that graduates are prepared to enter theirprofessions with the skills and knowledge needed to succeed. ABET accreditation is globallyrecognized as a symbol of quality in technical education.ABET SOs are specific, measurable statements that describe what students are expected to knowand be able to do by the time they graduate from an ABET-accredited program. These outcomescover a broad range of skills, including
grade.IntroductionIntroductory STEM (science, technology, engineering, and math) courses typically have highattrition rates. For STEM bachelor’s degree students in the United States, 48% leave STEMbefore completing their degree. They either switch to another major, or exit college beforeearning a degree [1]. This is of significant concern, as demand for skilled professionals in STEMis high, and attrition reduces the number of graduates available to fill these roles. STEM fieldsare critical for innovation and economic growth, and a lack of STEM talent impacts a country’sability to compete globally [1][2][3][4]. Research has shown that (among other factors),students’ belief in their own competence, how interesting or enjoyable they find tasks, and howmuch is required of
increases their metacognitive learning processes, and 4) providing a measure oflearning progression through clear short-term goals and the course’s big picture objectives.Formative assessment with timely feedback to which the instructor responds in a clear-and-evident manner are critical features of our approach to groupwork through active learning.Active learning in its various forms has been shown to enhance learning, improve grades bynearly half a standard deviation [3] and narrow achievement gaps for underrepresented students[4] in undergraduate science, technology, engineering, and math (STEM) courses. In our study,we used in-class problem solving with the ‘I do, we do, you do’ gradual release model [5]. Themodel helps students understand
Paper ID #47545Exploring the Cognitive Complexity of K-12 CS Standards (Fundamental)Dr. Julie M. Smith, Institute for Advancing Computing Education Dr. Julie M. Smith is a senior education researcher at the Institute for Advancing Computing Education. She holds degrees in Curriculum & Instruction and Software Development. She also completed a doctoral program in Learning Technologies. Her research focus is computer science education, particularly the intersection of learning analytics, learning theory, and equity and excellence. She was a research assistant at MIT’s Teaching Systems Lab, working on a program aimed at
concepts.In this paper, we focus on a curated set of engineering and technology textbooks from the O’Reillyplatform to demonstrate TextMatch’s capabilities. As a work in progress, we plan to expand TextMatch’sscope to additional disciplines and data sources, ultimately making it more versatile for diverseeducational settings. We highlight how TextMatch’s flexible, modular architecture supports dif-ferent semantic search models and user preferences, presenting both quantitative and qualitativeevidence—including improved mean Precision@10 and MRR scores and favorable user surveyresponses—to demonstrate its value. Ultimately, TextMatch not only broadens access to relevanteducational content but also streamlines the discovery process, showing how large
Paper ID #47551Intelligent Hybrid Power Plant for Marine Hydrogen Fuel Cell IntegrationMr. Jonathan Tyler Prince, United States Coast Guard AcademyMr. John Rex Adong Gaviola, United States Coast Guard AcademySontino AllentuckJeffrey Edward HartungDr. Tooran Emami Ph. D., United States Coast Guard Academy Tooran Emami is a tenured full professor in the Department of Electrical Engineering and Computing at the U.S. Coast Guard Academy (USCGA). She earned her M.S. and Ph.D. in Electrical Engineering from Wichita State University. Her research focuses on control and power systems, with a particular interest in Proportional
foundation, 2) engagement in engineering design - students followed asystematic method toward problem-solving, 3) context integration - incorporating voices of thosewho would ultimately benefit from their technology, 4) content integration, 5) engagement inauthentic STEM practices, 6) twenty-first century skills - such as technical presentations, projectmanagement methods, and e-portfolios, and 7) STEM careers - through our lunch-time talks withprofessionals in the fields.3.1 Student project ideationThe group of twenty-nine rising junior and senior students, representing 21 U.S. high schools,were guided through an idea brainstorming phase where they were asked to identify issues orproblems in society that could be helped or solved with technology