construction, sustainable materials and infrastructure, construction education, and workforce development.Dr. Jiannan Cai Dr. Jiannan Cai is an Assistant Professor of the School of Civil & Environmental Engineering, and Construction Management at the University of Texas at San Antonio (UTSA). She teaches Construction Materials and Testing, and Construction Estimating II, both at undergraduate levels. Her research interests are construction automation and robotics, artificial intelligence and its applications in construction, infrastructure, and built environment. ©American Society for Engineering Education, 2025 1
., “The Role of Attendance in Student Engagement in Engineering Education,” J. Eng. Educ., 2020.[5] S. Kumar et al., “Attendance and Performance in Laboratory Courses: A Case Study in Environmental Engineering,” J. Eng. Technol., 2019.[6] M. Davis et al., “Impact of Hybrid Course Delivery on Student Attendance in Engineering Programs,” Int. J. Eng. Educ., 2021.[7] T. Robinson et al., “Teaching Quality vs. Attendance: Which Has a Greater Impact on Student Performance?,” J. High. Educ. Res., 2022.[8] M. A. Karim, “Hybrid and Online Synchronous Delivery of Environmental Engineering During COVID-19 Pandemic: A Comparative Study on Perception, Attitude, and Assessment,” Eur. J. STEM Educ., vol. 6, no. 1, pp. 01–11, Feb. 2021.[9
interdependence of these theoretical frameworks andunderscore the difficulty of clarifying the connections between the various frameworks andpractices in active, experiential, challenge-based, and project-based learning.This research study focused on understanding how professors implemented a real-worldproblem-solving project in their courses as part of JUMP into STEM, an annual, nationwidestudent competition.The competition comprises three real-world building science problems. Each year, thesechallenges are identified by national laboratory researchers in building sciences through directcollaboration with professors and implemented in building science courses nationwide.Professors integrate the real-world problems in their graded courses in a way that
Industry Academia ModelAbstractThis paper describes a collaborative industry-academia model for teaching medical devicedesign, which combines active learning with input from industry experts. The course coversinterdisciplinary topics such as biological testing, human factors, usability engineering, riskmanagement, and regulations, areas that go beyond the expertise of a single instructor. Industryprofessionals contribute through guest lectures, mentorship, and real-world case studies, ensuringthat students gain practical, industry-relevant knowledge. Students work on hands-on projectsthat simulate real-world scenarios, helping them develop critical thinking, teamwork, andproblem-solving skills. Active learning activities like sensor-based labs and
Obispo Brian Self obtained his B.S. and M.S. degrees in Engineering Mechanics from Virginia Tech, and his Ph.D. in Bioengineering from the University of Utah. He worked in the Air Force Research Laboratories before teaching at the U.S. Air Force Academy for seven years before joining Cal Poly, San Luis Obispo in 2006. ©American Society for Engineering Education, 2025 Adaptive Learning Modules in Introductory Engineering CoursesAbstractDynamics is a foundational engineering course, however, students often find it challenging dueto their limited prior experience and preconceptions. Conventional teaching methods in thiscourse frequently fall short of connecting main principles in ways that improve
teaching technical skills (n =19), while immersion (n = 6), soft skills (n = 6), and other topics(n = 5) have also seen deployments in the field. This technologyhas shown potential in knowledge acquisition (n = 8), self-efficacy(n = 9), engagement (n = 8), and satisfaction (n = 6) among users.Future work should look at how soft skills and immersion arebeing taught using virtual reality, and how smartphone-basedvirtual reality head-mounted displays can be used to provide alow-cost and portable means to access nursing simulationcontent. Fig. 1. Oculus Quest 2 VR HMD Keywords—Virtual Reality; Simulation; Nursing Education; ODigital Technology
Paper ID #45703Create your 3D Eye: A Lesson Module for Grades 6-8 from ImageSTEAMTeacher’s WorkshopDr. John M Mativo, University of Georgia Dr. John Mativo is Professor at the University of Georgia. His research interest lies in two fields. One research focusing on best and effective ways to teaching and learning in STEM K-16. He is currently researching on best practices in best methods of learning Dynamics. A second research arm is in energy harvesting using thermoelectrics to convert waste heat into electricity.Dr. Ramana Pidaparti, University of Georgia Ramana Pidaparti, is currently a Professor of Mechanical
Paper ID #49680Examining Student Usage/Access Statistics from two Canvas LMS courses:Undergraduate and GraduateProf. Tariq Khraishi, University of New Mexico Khraishi currently serves as a Professor of Mechanical Engineering at the University of New Mexico. His general research interests are in theoretical, computational and experimental solid mechanics and materials science. He has been involved for years in the scholarship of teaching and learning. ©American Society for Engineering Education, 2025 1
presentations further ensures students develop the ability to critiquetechnical content in professional settings [20].In the context of reviewing published articles, peer review offers students the opportunity toanalyze and assess established work, enhancing their understanding of how research fits intobroader disciplinary conversations [21]. Introducing students to technical articles through activelearning and peer review enables them to engage deeply with professional literature, a processshown to enhance critical thinking and innovation-based learning [22]-[25].Course DesignIn preparing students (particularly engineers and scientists, in these courses) for the future thereare increasing demands on educators to teach writing, oral communication
thatengineering education while ensuring its effectiveness combining structured rubrics with qualitative feedbackand sustainability [4] . One of the primary obstacles in provides the most effective assessment model [4].implementing PBL is the high demand for resources, Another significant challenge of implementing PBL isespecially in institutions with limited budgets. Many faculty adaptation. Many educators are accustomed tohands-on projects require specialized equipment, raw traditional lecture-based instruction and may lack thematerials, and laboratory spaces, which may not hands-on experience required for guiding studentsalways be readily available [7]. CNC-based projects, through PBL projects [8]. A professor
Horizon Project Sector Analysis. ERIC, 2013.[15] J. Miranda et al., "The core components of education 4.0 in higher education: Three case studies in engineering education," Computers & Electrical Engineering, vol. 93, p. 107278, 2021.[16] N. Blinn, M. Robey, H. Shanbari, and R. R. Issa, "Using augmented reality to enhance construction management educational experiences," in Proceedings 32nd CIB W078 Workshop, Eindhoven, The Netherlands, 2015, p. 8.[17] Z. H., "Using 3D Hologram to Improve Classroom, Project, and Laboratory Demonstration: A Proposal for 2017 Innovations in Teaching Using Technology Grant. ," Rowan University, College of Engineering, 2017.[18] T. Consoli, J. Désiron, and A. Cattaneo
Paper ID #49612Implementing a Flipped Learning Approach In Two Engineering CoursesDr. Lynn Dudash, University of Mount Union ©American Society for Engineering Education, 2025 WIP: Implementing a Flipped Learning Approach in Two Engineering CoursesIntroduction The flipped learning approach is an innovative teaching technique that has beenimplemented in many university level engineering courses over the past 15 years. Whileelements of the flipped teaching method have been used since the late 1990’s, two high schoolchemistry teachers, Jonathan Bergmann and Aaron Sams, are often credited
to be engaged teacher-scholars who: (1) teach introductory and advanced engineering classes atthe undergraduate level; (2) teach first year and upper-level interdisciplinary topical courses to majors and nonmajors alike; (3) establish avigorous, externally supported research program (in domains that could include fundamental and applied engineering as well as teaching andlearning) that will include undergraduate students in meaningful projects; and (4) serve the department and university through studentadvising, undergraduate mentoring, active participation in faculty governance, and establishing links to industrial and community partners. Allfaculty are expected to participate in and support the department’s curriculum and program design
motivation [24].Computer Science and Programming EducationThe primary example of gamification in programming education is the Hour of Code. Hour ofCode is an online event and collection of activities dedicated to teaching the concepts ofprogramming through a simplified drag and drop syntax [25]. These tasks are intended to becompleted over the course of approximately one hour. These activities generally consist of a setof levels of a game where the player controls a character or the game world through code [25].Outside of the website, there has also been collaboration with other organizations. Thedevelopers of Minecraft worked with Code.org to include a tool to teach programming in theeducation edition of the game [26]. This implementation allows
development courses and teacher A. Introductionleadership development in Saudi Arabia, with a focus on The field of education is experiencing change, which has notfostering innovation and technology integration in education. only affected students’ learning but also necessitatedThe research aims to explore how these courses can enhance corresponding adjustments to teaching strategies [19]. In Sauditeachers' competencies while addressing the unique Arabia, a nation adjusting to technological advancement,sociocultural, educational, and technological contexts ofSaudi Arabia. A
Paper ID #45527Exploration of Collaborative Design Spaces: Student Engineering Interactionsand Workflows in Product DevelopmentFrederick Rowell, Clemson University Lead Author Bio: Frederick (Fritz) Rowell is a graduate student at Clemson University in the Department of Mechanical Engineering. He is focusing on virtual engineering tools, including PLM, PDM, and Additive Manufacturing, to quicken product design cadence through coursework and human-subject studies. His professional experience includes internships at E-Z-GO in Augusta, GA, and Savannah River National Laboratory in Aiken, SC.Dr. Todd Schweisinger P.E., Clemson
rankings, theengineering program at Cal Poly Pomona is ranked #10 among public universities in the nationamong public universities where a doctorate is not offered [2]. It is also ranked top 15Nationally in Social Mobility according to The Wall Street Journal [3]. What makes Cal PolyPomona unique is the culture of “learn by doing” which emphasizes hands-on learning inclassrooms and laboratories. The reputation of being a top engineering school is well-deserved.The goal of this study is to build upon the successful culture of “learn-by-doing” by exploringhow a project-based approach in a traditional engineering course can improve student knowledgeof the subject matter. In addition, having a variety of teaching methods aligns with the broadvariety
to the integration of AI in learning and teachingin the Global South will also call Governments to train local researchers and developers, to forgepartnerships with external entities and to integrate digital skills training into primary andsecondary school curricula (Chinasa T. Okolo, 2021).Menekse, despite raising some risks that students who rely too much on AI might lose interestand curiosity, also shows some confidence in AI. In the guest Editorial of the JEE (June 2023),he explains how AI-powered virtual laboratories, seen as able to simulate physical experimentsand visualize fundamental engineering concepts, could be effective for teaching and learningpurposes. Also, Large Language Models (LLMs) are presented as able to provide
The logical circuit's design was optimized to exhibitlearning experience, employing a reward system designed largely unpredictable behavior and possess a unique solution.to foster persistence and critical thinking. The project also To ensure that the circuit only had one solution, the logic gatesexplores the educational potential of the puzzle box as a tool comprising the circuit were limited to AND gates and NOTfor teaching foundational engineering logic to young gates. This had the added benefit of limiting the supplies neededchildren. to physically implement the design. To
outcomes ensure graduates are well-prepared for professionalengineering practice and societal needs.Our ABET report detailed how the program integrated ABET-defined student outcomes into itscurriculum to meet interdisciplinary demands. A mapping (Appendix C) showed how eachoutcome supported at least two program educational objectives. The report outlined thecurriculum structure, blending seminars and laboratories to reinforce hands-on problem-solving.We highlighted part-time instructors who brought industry expertise, enhancing courserelevance. To broaden perspectives, we detailed initiatives such as alumni panels, mentorshipprograms, and guest lectures by industry and academic professionals. The report emphasizedinternships and undergraduate
infrastructure, construction education, and workforce development.Dr. Jiannan Cai Dr. Jiannan Cai is an Assistant Professor of the School of Civil & Environmental Engineering, and Construction Management at the University of Texas at San Antonio (UTSA). She teaches Construction Materials and Testing, and Construction Estimating II, both at undergraduate levels. Her research interests are construction automation and robotics, artificial intelligence and its applications in construction, infrastructure, and built environment. ©American Society for Engineering Education, 2025 1
secure external funding to support student research,industry-driven projects, and state-of-the-art laboratory facilities. Partnerships with state andfederal agencies will further enhance opportunities for students to engage in research thatdirectly impacts agricultural innovation. Summary and ConclusionsThe ET-AG program at WTAMU represents a forward-thinking approach to agriculturaleducation, integrating engineering and technology to meet the challenges of modern foodproduction. Program development requires hands-on efforts supported by faculty and industrycollaborations. The ET-AG program is a new interdisciplinary initiative that will be expanded asboth undergraduate and graduate student populations continue to
courses are typically included in the EngineeringTechnology Curriculum for an electronics system program. At Texas A&M University, the ElectronicSystems Engineering Technology (ESET) program is offered. For the embedded systems courses thatthe author has been teaching, students learn about microcontroller architecture and microcontrollerapplications. For the class projects, students can be given comprehensive programming and projectdemo assignments as a class project toward the end of the course. And, some of the students wouldtake the Capstone project courses in the following semesters. In this paper, the author presented theskills and knowledge that can be used from underwater robots and boat platforms to benefit embeddedsystems courses and
better understanding of thestruggles students face in their courses.Future exploration may involve a comparison of our current results with those from prior classyears at our institution, or with courses of a more product-based or knowledge-based nature. Wemight also be able to collaborate with other engineering programs at other institutions tocompare student feedback about similar courses. Finally, our results might be applicable toformative assessment for the improvement of student learning in first-year engineering and otherSTEM courses.References[1] K. M. Kroeper, K. Muenks, E. A. Canning, and M. C. Murphy, “An exploratory study of the behaviors that communicate perceived instructor mindset beliefs in college STEM classrooms,” Teach
Electrical and Computer Engineering. She has worked for companies such the Air Force Research Laboratory in conjunction with Oak Ridge National Labs and as an R & D Intern for Sandia National Labs conducting Natural Language Processing and AI research and was inducted into the Bagley College of Engineering Hall of Fame in 2021.Alexis P. Nordin, Mississippi State University Alexis Nordin is currently an Instructor II in the Shackouls Technical Communication Program in Mississippi State University’s James Worth Bagley College of Engineering. She has taught technical writing and various other writing- and communication-based courses at MSU since 2004. She holds bachelor’s and master’s degrees in English from Mississippi
patent for pioneering work titled, ”Methods, Systems and Computer Readable Media for applying multi-push acoustic radiation force to samples and monitoring a response to quantify mechanical properties of samples,” showcasing her expertise in applied engineering. She is also a respected author, having co-authored two textbooks. Her debut, ”Algebra Essentials,” emerged during her tenure teaching Mathematics at Wake Tech Community College, while her second publication, ”Creating a Better World: Innovation, Ingenuity, and Engineering,” serves as a cornerstone in first-year engineering courses at NC State. In addition to her roles in curriculum development and instruction, Dr. Qaqish is deeply involved in research and
andapplication.TheoryAs previously mentioned, one of the main goals of the course is to teach the mathematical controltheory used in AV research. In Table 1, the theory topics to be covered during a semester areshown. Most of the topics were drawn from current research publications on aerial, underwater,surface and ground robotics. Necessary mathematical fundamentals were drawn from varioustextbooks that are available both online and in the library of the university. Additionally, examplesof recent publications related to each individual topic are discussed during the lectures.SimulationNumerical simulations are an essential part of today’s engineering education. They are used aslearning support and understanding tools of complex systems [16] such as an UAV
Chattanooga ©American Society for Engineering Education, 2025 Relating Kinetic Energy Changes to Power Generation in a Mechanical Engineering Wind Turbine Lab Abstract All mechanical engineering students at the University of Tennessee Chattanooga arerequired to take a senior-level experimentation lab that covers topics in multiple areas ofMechanics as well as Thermal Fluid Sciences. Two faculty members teach the course, consistingof a one-hour course and a three-hour lab. One of the main goals of this course is to reinforcemuch of the undergraduate material students have covered in the program's first three years.Recently a Wind Turbine experiment
-MACHINE SYSTEMS COURSE AND ROLE OF AI Along with the assignment write-up, students were asked tooutline the advantages and drawbacks of using AI for such A. HMS Course Profileacademic work. Of the 56 respondents, there were 115 open-ended responses indicating the merits of using Gen AI for this Human-Machine Systems (HMS) is a 5-credit senior-leveltype of project and 121 responses outlining the less effective and engineering course at Northeastern University, with multipleconcerning aspects of its use. The primary categories of positive assignments and laboratory sessions over a 15-week semester.responses reflected how students felt AI benefited them in This course focuses on the science behind safe
ManagerTransfer Specialist, [Cedric Trice], who works in conjunction with both program directors andMorehouse College and Georgia Tech registrars to determine the CStoCompE dual-degreecurriculum and designate the number of required transfer credits; Morehouse College postdoc,[Christopher Thomas], who serves as a program instructor and tutor; Morehouse Collegeinstructors, [David Cherry] and [Whitney Nelson], who manage the Summer Bridge Programcurriculum and teach pre-first-year student summer sessions; Georgia Tech ECE PhD graduateassistant, [Christian Ford], who serves as tutor and mentor in the Morehouse CollegeUndergraduate Student Support Lab; and Morehouse College students enrolled in the 2024 Pre-First-Year Computer Science cohort, who will also