disciplines, particularlyengineering, require hands-on, interactive experiences. Digital twins offer a solution by enabling remoteaccess to virtual laboratories and experimental setups. For example, as Deniz et al. [18] noted, usingdigital twins allows students to interact with lab-based experiments remotely, providing an experience thatclosely mirrors in-person learning. Johra et al. [19] explored how digital twins of building physicsexperimental setups are used for effective e-learning, allowing students to simulate complex experimentsinvolving heat transfer, energy consumption, and airflow in buildings. This remote learning approachenhances students' engagement and understanding of complex systems, as they can actively interact withthe digital
design. Thecourse’s target audience is undergraduates, serving students majoring in computer science,design, the liberal arts, and business, at a private R1 research institution. The class guidesstudents through a series of laboratory exercises and design experiences to develop theirconfidence and ability in the domains of soldering, breadboard prototyping, circuit fundamentals,and microcontrollers. This paper evaluates the impact 18-095 has had over three semesters (Fall2023, Spring 2024, Fall 2024), analyzing the development of student self-efficacy, identity, andsense of belonging, as measured across three surveys each semester (n = 71). Self-efficacy forcircuit prototyping and design increased by a mean of 45.7 points between the pre-measure
laboratory session having thought about their physical representations. During the100-minutes-long laboratory session, students work in teams. Each team is assigned either asolid, liquid, or gas phase. They are provided with M&Ms and cookie sheets (baking trays). Theydiscuss, plan, and enact their representations in the first half of the session. Then, the whole classwalks to each station. The students at the station give a brief informal presentation on theirrepresentation and answer questions. During this informal question & answer session, facultyorganizes key features of the three modes of heat transfer on the board. Students activelycontribute to the information jot on the board. Post-activity, they are provided one week to reflecton
instruction to createclassroom curricula aligned with the Next Generation Science Standards (NGSS). The specificobjectives of the program are to: 1. Enhance teachers’ bioengineering content knowledge and pedagogical skills. 2. Enable teachers to translate laboratory research into practical, NGSS-aligned curricula. 3. Address educational equity by preparing teachers to better support diverse, urban student populations.Adopted in Illinois in 2014 to be in effect by the 2016-17 school year, NGSS required complexcurriculum planning on the part of districts. The framework relates science to students’ everydaylives, ensures students learn about being careful consumers of scientific and technologicalinformation, and prepares them with the skills
evaluating properties such as Young’s modulus, thicknessmeasurement using pulse-echo techniques, and flaw detection by identifying internal defectsthrough ultrasonic wave reflections. Unlike commercial ultrasonic systems designed specificallyfor thickness gauging or flaw detection, each costing a similar amount—this system provides aversatile and cost-effective alternative while allowing students to directly engage with themeasurement principles.This paper presents a laboratory experiment designed to introduce ultrasonic NDT at thesophomore level as part of a materials testing course. The experiment aims to: 1. Introduce NDT concepts to students to spark their interest in this field. 2. Provide sufficient background knowledge to help students
curriculum unique, though, is the emphasis on creating a single,complete product. In fact, the course is centered around this tenet, with all classroom materialstemming from the necessary facets of such design. To the author’s knowledge, there is no othercomparable curriculum.In the proposed curriculum, the course focuses heavily on practice. However, theory is alsoemphasized in order to allow students to adjust to whatever tools a company or laboratory maydemand. Furthermore, the class emphasizes the theory behind “rules of thumb” in order to allowstudents to make educated decisions in the design process. This approach overall helps students tofoster creativity [6], as none of the practical aspects have “correct” answers, and the students gainthe
by utilizing affordable, safe, andportable electronics in various educational settings (classrooms or laboratories). ECP combinesproblem-solving exercises and constructive learning methods with a hands-on, portablemultifunction tool that can be used in place of larger and complex laboratory apparatus. Over atwo-year period, a civil engineering program that integrated hands-on learning through projects,lab exercises, and fieldwork showed substantial gains in students' self-reported efficacy. Surveydata, collected using validated self-efficacy rating scales, indicated significant improvementsacross various categories, including technical skills, problem-solving ability, teamwork, andconfidence. These findings highlight the potential of hands
, Effective, Extremely effective). Using a five-point scale, rate the effectiveness of participating in class remotely in 0.75 terms of increasing engineering laboratories skills (Extremely ineffective, Ineffective, No-difference, Effective, Extremely effective). Using a five-point scale, rate the effectiveness of participating in class remotely in 0.76 terms of increasing communication skills (Extremely ineffective, Ineffective, No- difference, Effective, Extremely effective). Using a five-point scale, rate the effectiveness of traditional face-to-face learning 0.67 in terms of increasing knowledge theoretically (Extremely ineffective, Ineffective, No-difference, Effective, Extremely effective). Using
Python'sfoundation while operating several actuators and sensors. The testbench and controller weredesigned, built, and tested for use in a hands-on robotics course for sophomore engineeringstudents, which requires extensive prototyping of robotic mechanisms. In the laboratory sessionassociated with Python programming, the students learn how to operate and control different typesof DC motors, stepper motors, servo motors, and linear actuators. Then, the students use thetestbench to collect and export data using tracking and measurement sensors. The testbenchconsists of frames, a collection of motors and sensors. The controller was developed to operate sixDC motors, five servo motors, and four sensors. Incorporating this testbench and experiment
multifacetedchallenges of the renewable energy sector. Through collaborative projects, case studies, andpractical experiments, students gain critical thinking, teamwork, and technical skills essential fortheir future careers. By embracing PBTL, educational institutions can play a pivotal role in shapingthe next generation of professionals who will drive the global transition to renewable energy.Due to the cost and time constraints associated with physical laboratory activities and projects,virtual laboratories and multimedia become appealing alternatives [6, 7, 8]. Paper [7] introduceda virtual PV power systems laboratory where students used the Cadence PSpice circuit simulatorto design and implement simple stand-alone PV power systems. Paper [8] explored the
Paper ID #47395BOARD # 63: AI Chatbot for Enhancing Troubleshooting in EngineeringLabsMarshall Ismail, Worcester Polytechnic Institute This paper was co-authored by three Worcester Polytechnic Institute undergraduate students pursuing degrees in Mechanical Engineering and Robotics Engineering. Having previously completed the mechanical engineering laboratory course of which the study is based on, they are familiar with the challenges that students often face when working on lab assignments without sufficient guidance. Their collective experience in the course and guidance by Professor Sabuncu inspired them to create a AI-based
. Thus, considering that automated control courses inundergraduate curricula are usually considered difficult [10], and in recent years, the use ofunmanned aerial vehicles technology has notably increased [11][12], Tecnológico de Monterrey,Campus Monterrey, designed, developed and implemented autonomy of unmanned aerialvehicles minor. Here, the students implement their own control algorithms, applying thecompetencies developed in the focus stage of their study plan. Moreover, as laboratories andexperimentation are an important part of the engineering curricula and education [8], the labsessions are carefully designed to promote different and complex competencies required byABET Criterion; this, based on supplement technical workshops, in which
coursethat includes twelve weeks of surveying laboratory, where students gain familiarization withfield surveying tasks and utilizing Autodesk® Civil 3D®. With the increase in the size andcomplexity in Autodesk® Civil 3D® Fundamentals software tutorial, course evaluations showeda decline in student self-efficacy. The 2024 tutorial is now just under 1000 pages, 18 chapters inlength. Students commented that the Civil 3D® tutorial was overwhelming due to the abundanceof tasks required for each chapter and that the tasks outlined in the tutorials were too advancedfor an entry level Civil 3D® user. In addition, students noted even when they completed thetutorial, they were not confident in their ability in using the program outside of the course.Students
Radiological Engineering Design 1 ENU 4612/4612L Nuclear Radiation Detection and Instrumentation (& Lab) 4 ENU 4630 Fundamental Aspects of Radiation Shielding 3 Technical Elective 3 Spring Senior ENU 4145 Risk Assessment for Radiation Systems 3 ENU 4192 Nuclear and Radiological Engineering Design 3 ENU 4505L Nuclear and Radiological Engineering Laboratory 1 3 ENU 4641C Applied Radiation Protection 2
Paper ID #46670Integrating Design Projects to Help Students Learning in Mechanical EngineeringLabDr. Ismail I Orabi, University of New Haven Professor Orabi received his B.S. in Mechanical Engineering from Cairo Institute of Technology (now Helwan University), in 1975, his M.S. degree in Mechanical Engineering from the State University of New York at Buffalo, in 1982, and his Ph.D. degree fro ©American Society for Engineering Education, 2025Integrating Design Projects to Enhance Student Learning in MechanicalEngineering LaboratoriesAbstractThe Mechanics Laboratory course serves as a critical bridge between
apply the knowledge acquiredin the first semester, for example, to replicate in a controlled laboratory environment, real-worldmissions like flight surveillance operations. Students’ schedules in the laboratory overlap toincrease peer interaction, collaboration, and mutual support. This study’s goals were to explore the high-impact research-oriented learning experiencesfor the Latinx undergraduate participants of the ROLE program and how they built strongtechnical skills while sharing space and knowledge with their fellow peers and mentors. Tworesearch questions framed this study. The first research question addresses the qualitative data,and the second research question informs the quantitative section of the study: 1. How did Latinx
used in engineering,including natural materials. a b Figure 1. Microstructures of (a) stainless steel[1] and (b) aeolian sandstone.This paper reports on a geology-based laboratory module for an introductory MSE course. Thislab occurred at the beginning of the term, so it could only require minimal course content. Theaim was to introduce students to MSE concepts, such as quantifying microstructures, whilereinforcing measurement error principles taught in prerequisite courses. The learning goals forthe lab were to: • Calculate measurement errors, • Analyze feature sizes and size distributions, and • Evaluate sources of uncertainty in microstructural analysis.Geological
. Afterwards, she earned a master’s degree in Materials and Manufacturing in the Department of Mechanical Engineering (INME) in the UPRM. Yareni commitment for an inclusive and diverse community in the campus led her to serve as Spokesperson in the International University Community at UPRM. Yareni has worked as an Instructor for the Manufacturing Engineering Laboratory, and of engineering courses, as Graphics Engineering and Introduction to Fluid Mechanics, in the Department of General Engineering at UPRM. Her interest in human biology, led her to serve as an instructor of the Biosensors and Biological Geometric Design courses, and as a research assistant in the Biocompatible Materials Research Group at UANL. She has been
Sheridan is a Research Scientist in the Brinson Advanced Materials Laboratory at the Duke University Department of Mechanical Engineering and Materials Science. His current research interest include optimal experimental design, uncertainty quantification, and AI-augmented laboratory techniques, especially in the context of AFM nanomechanics and viscoelasticity.Prof. Junhong Chen, University of Chicago Junhong Chen is currently Crown Family Professor of Pritzker School of Molecular Engineering at the University of Chicago and Lead Water Strategist & Senior Scientist at Argonne National Laboratory. He also serves as the Science Leader for Argonne’s presence in the City of Chicago (Argonne in Chicago). Since March 1
laboratories on every institution's campus. Additionally, distance and travel time are barriers for employees to update the skills employers need them to acquire. Traditional students face some of these same barriers. To help remove barriers, South Central College considered how its successful Mechatronics program could be expanded to support industry directly and, additionally, high school students. IMEC was built on the existing in-person Mechatronics program toFigure 1. iMEC Electronics Trainer
concepts, andengineering tools like Excel and GIS in a project-based learning format. EENV 202, SustainableWaste Management, combines systems thinking concepts, an introduction to ethics and socialjustice topics, and technical content related to solid and hazardous waste management with a life-cycle assessment project on laboratory waste streams. The initial offering of these courses tookplace in the 2023-2024 academic year. This paper reviews the design and implementation ofthese two new project-based courses and shares lessons learned. The findings can guide otherprograms in collaboratively designing integrated project-based engineering courses (IPBC) forfirst- and second-year students.1.0 IntroductionEnvironmental Engineering (EENV) faculty at
Paper ID #46392BOARD # 356: ECR: BCSER: Are Females Better at Debugging Circuits?Andrew Jay Ash, Oklahoma State University Andrew J. Ash is a PhD student in Electrical Engineering in the School of Electrical and Computer Engineering at OSU and he is a research assistant in Dr. John Hu’s Analog VLSI Laboratory. He received his B.S. in Electrical Engineering from Oklahoma Christian University. Andrew’s research interests include engineering education and hardware security of data converters and neural networks.Dr. John Hu, Oklahoma State University John Hu received his B.S. in Electronics and Information Engineering from Beihang
applications, material corrosion mechanisms, and electrochemical degradation. She is a strong advocate for integrating high-impact practices, such as problem-based learning, into lectures, laboratories, and outreach initiatives to enhance student and community engagement in STEM education.Dr. Kenya Crosson, University of Dayton Dr. Kenya Crosson serves as Associate Dean for Faculty and Staff Affairs and Research in the School of Engineering at the University of Dayton (UD), and she is an Associate Professor in the Department of Civil and Environmental Engineering and Engineering Mechanics. A UD faculty member since 2007, Kenya teaches undergraduate and graduate courses; manages an environmental engineering research program
undergraduate STEMmajors.The Douglass Residential College undergraduate research program at Rutgers University knownas the SUPER Research Experience serves close to 100 women each spring semester includes arecent curriculum update of the introductory research course. This unique course features anactive learning classroom element which includes workshops, hands-on laboratory experiments,and laboratory techniques. Additionally, students benefit from the support of the courseinstructor, near-peer mentor, and a five (5) hour per week lab shadowing experience with aresearch faculty advisor.Over 70% of the students in the course participate in the 10-week guided summer researchopportunity. The summer component of the research experience includes continued
ABET accreditation requirements and program educational objectives. The courseintegrates a series of structured laboratory experiments that focus on key concepts such as time-domain and frequency-domain analysis, signal processing, frequency response and filtering, andsystem modeling. These hands-on labs, involving circuit analysis, RLC filters, op-amp circuits,audio boosters, volume unit meters, and timing circuits, aim to enhance students' practical skillswhile reinforcing their theoretical knowledge. The course culminates in a comprehensive finalproject, where students integrate their skills to design and implement a multi-functional signalprocessing system. By engaging in these activities, students develop competencies in problem-solving
this multidisciplinary team.Osama Desouky, Texas A&M University at Qatar Osama Desouky is a Technical Laboratory coordinator at Texas A&M University in Qatar. Osama is currently pursuing his Ph.D. in interdisciplinary engineering from Texas A&M University at College Station. He is responsible for assisting with experimental method courses, 3D printing, mechanics of materials, material science, senior design projects, and advanced materials classes. Osama’s professional interests include manufacturing technology, materials science, 3D printing, experiments, and product design,Dr. Marwa AbdelGawad, Hamad Bin Khalifa University Dr. Marwa AbdelGawad joined Hamad Bin Khalifa University (HBKU) as an
. He earned a Ph.D. in Computer Engineering at Florida Atlantic University, in the past worked as an assistant researcher in the group of educational Technologies at Eafit University in Medellin, Colombia. His research area is the online Laboratories ©American Society for Engineering Education, 2025 Cyber-Informed Engineering Course Syllabus for Undergraduate Engineering ProgramsAbstractCybersecurity is a broad field that encompasses the development of mechanisms to prevent,detect, and recover from cyber and physical attacks. These security mechanisms should cover thesecurity of a company’s assets, the security of information (such as personally
Education, 2025 Generation of Peer Mentor Training Modules for Academic Makerspaces (NSF IUSE)This work outlines the course mapping structure of a training program focused onhelping undergraduate peer mentors effectively assist first-year students in academicmakerspaces, design courses, and laboratory classrooms. Student learning inunconventional learning environments such as makerspaces can be challenging,particularly if the learning requires the students to engage in teams to complete thenon-traditional learning activities associated with project and problem-based learning.The goal of the peer mentor preparation program is to provide undergraduate peermentors with the knowledge, tools, feedback, and practice
attending the Biomedical Optics and Imaging REU at the University of Arkansas reportedfavorable experiences, gained significant specific laboratory and presentation skills in areas crucial tobiomedical engineering, and were more likely to attend graduate school following the completion of thisprogram.AcknowledgementsThis work was supported by the National Science Foundation (award number EEC #2243953).References Cited1. Cousins M, Suggs L, Markey MK, editors. REU: A Balancing Act. ASEE 2021 Gulf-SouthwestAnnual Conference; 2021.2. Mabrouk PA. Survey study investigating the significance of conference participation toundergraduate research students. Journal of chemical education. 2009;86(11):1335.3. Chowdhury TM, Taylor AR, Murzi H
during the summers of 2006 to 2008 and at Idaho National Labs in 2010. She held the Georgia Tech ADVANCE Professorship with the College of Engineering from 2006 to 2012, where she was responsible for initiatives to help the female faculty of the college succeed. She was an Associate Editor of the IEEE Transactions on Mobile Computing from 2009 to 2012. She was the Senior Associate Chair of the School of Electrical and Computer Engineering from 2016-2021, where she was responsible for academic operations. Prof. Weitnauer’s research focus is currently split between MIMO wireless communications and sensor-driven, marker-less, interactive and immersive digital art. She leads the Electronic ARTrium laboratory, which she