Foundations of Medical Imaging 3 Biomedical Statistics 3 Biomaterials 3 General Biology 4 Fundamentals of Biomechanics 3 General Biology Laboratory 1 Biomedical Design 3 Medical Systems Physiology 3 Senior Project I 2 Human Physiology Laboratory 1 Senior Project II 1 Principles of Chemistry 4 Biomedical Measurements 4 Principles of Chemistry Laboratory 1 Biomedical Transport Phenomena
through the post-pandemic. Due to changes in pandemic controlmeasures, each year’s course offering had a different teaching modality: in-person (2019),remote (2020), Hyflex (2021), and in-person / hybrid (2022). Assessment metrics used toidentify the most useful interventions included student surveys, faculty surveys, and directassessment of performance on graded events. The most useful interventions identified includednarrated slideshow presentations, recorded class presentations, and virtual laboratories and fieldtrips. Many of the practices introduced during the remote and Hyflex course offerings, such asthe ability to teach remotely, were beneficial for faculty members and will be carried forward forfuture course offerings. This study
: the practice of certain canonical problems in acertain collection of subjects is supposed to habituate the student into a certain way of thinkingthat we think constitutive of a physicist, chemist, or other flavor of scientist. But science alsoventures out into the unknown, past the canonical problems and the canonical experiments, andso students need to be formed in ways of handling these more ambiguous situations where rightcourse of action is not clearly defined. Many undergraduate science curricula includeopportunities for such formation, often in advanced laboratory courses or capstone/senior thesiscoursework. Assessment of these formational outcomes is possible, but not as straightforward asfor technical outcomes. The question then is
collection was followed by acomprehensive analysis to determine which specific educational areas would benefit from futureMOM Belize program projects. The main findings were presented to CJC faculty, staff, andstudents in a session where an interactive survey was administered to capture feedback on theeducational areas identified for future projects. Participants were asked to provide their input,suggest additional areas of need, and rank the proposed educational initiatives on a scale from 1to 5, with 1 being the highest priority. Study results indicated that the most critical needidentified by CJC participants was higher education and scholarship training, as well as hands-ontraining of laboratory/field equipment. These findings will guide future
, she is an undergraduate researcher in Dr. Yang Xiao’s Reaction Engineering and Catalysis Science Laboratory at Louisiana Tech University.Dr. Mitzi Desselles, Louisiana Tech University Dr. Desselles is Associate Professor and Chester Ellis Endowed Professorship in the Department of Psychology and Behavioral Sciences at Louisiana Tech University. She is a member of the graduate faculty in Industrial/Organizational Psychology.Dr. Krystal Corbett Cruse, Louisiana Tech University Dr. Krystal Corbett is the First-Year Engineering Programs Coordinator and Assistant Professor in the Mechanical Engineering Department at Louisiana Tech University. She is also the Director of the Office for Women in Science and
Engineering Education, 2025 Development of Engineering Component Curiosity Challenges (ECCCs)AbstractEngineers have to adapt to rapidly changing technology throughout their careers, and this isespecially the case for selecting engineering components which often evolve quickly. This paperdescribes the design and evaluation of Engineering Component Curiosity Challenges (ECCCs), asuite of self‑directed laboratory modules intended to cultivate intrinsic motivation for lifelonglearning among senior‑level mechanical‑engineering students. Each module juxtaposes twofunctionally similar components—e.g., a spring‑powered versus a flywheel‑powered toy car; DCversus stepper motors—and requires students first to articulate hypotheses regarding
1 person Polytechnic Institute of Z administrators 4 persons University4 Case AnalysisIn order to cultivate applied and compound high-level engineering managementtalents that are urgently needed in key national fields in the era of digital intelligence,the School of Management at Z University targets technical management backbonepersonnel and related enterprise management backbone personnel from enterprises,national laboratories, and other institutions undertaking national key special tasks inrelated fields for enrollment. The School of Management, in collaboration with theCollege of Civil Engineering and Architecture as well as the School of MechanicalEngineering, jointly
ascending survey during an NSF training session. Thepossible responses to survey questions were listed worst-to-best. Both the questions and possibleresponses were detailed focusing on the goal, experience and performance associated with eachlevel. I do not remember if the performance level was mentioned. If so, it was not necessary. Ithought I could use this experience to better determine the effectiveness of pedagogicaltechniques based on student feedback.I had five pedagogical goals for the Engineering Materials course I was teaching. They were: 1: Students will successfully perform at the analysis and synthesis levels of Blooms Taxonomy throughout the course. 2: Students will value the integrated laboratory experience. 3
and advanced vector networkanalyzers, that are typically used in the SI laboratory, which tends to be very expensive andbeyond the standard laboratory equipment in an undergraduate program. In this paper, we reporton the efforts that we have made to keep our signal integrity lab current with new laboratoryexperiences and capstone projects and undergraduate research. For example, recently, we haveobtained support from the Office Naval Research and the local administration to acquire newVector Network Analyzer to enhance undergraduate/graduate education and research in signalintegrity. We have also received a time domain reflectometer (TDR) donation from a localcompany, and submitted a new Major Research Instrumentation (MRI), National
. Circuit Implementation each pushbutton, before being grounded, to eliminate any residual floating voltage once the button was lifted. With the theoretical foundation, coupled with access to auniversity electronics laboratory, everything was in place to Fig. 2. Circuit schematic of the digital guessing game. The setter’s and guesser’s consoles (orange and gray) relay signals to the XOR chip (purple) and the main computing unit (peach). The LED output appears at the bottom right (blue). TABLE I. TRUTH TABLE FOR XOR GATE A B X (output
Sustainable Engineering (ICSE), Executive Director for Gulf Coast Environmental Equity Center (GCEEC), Director for the Solid Waste Sustainability Hub, Director for the Gulf Coast Center for Addressing Microplastics Pollution (GC-CAMP), and Director for the Sustainable Asphalt Materials Laboratory, as well as the founding faculty advisor for the Society of Sustainable Engineering. He teaches a mixture of undergraduate and graduate engineering courses. Dr. Wu is a committee member for Transportation Research Board (TRB) AJE35 and AKM 90, a member of American Society of Civil Engineer (ASCE), American Society for Testing and Materials (ASTM), and Academy of Pavement Science and Engineering (APSE), as well as an editorial
University of Maryland College Park (UMD) who came to UMES for a10-week internship at the robotics laboratory supported by Maryland Space Grant’s SummerExchange Internship Program (SEIP). Standardized software libraries and packages integral to theRobot Operating System (ROS) facilitated the implementation efforts. The students overcamesignificant challenges to familiarize themselves with appropriate ROS1 and ROS2 environmentsand assimilated them with compatible versions of the Ubuntu( Linux) operating system to advancethe delineated goals. The ROS2-compatible micro-ROS was also utilized for one of the educationalmobile robotic platforms. Integration of artificial intelligence and sensor feedback wasemphasized. Collaborative field trials analogous
education intrinsically stems from the case method of approach, rather than from an orderly exploration of a given subject- matter field. Some experience in this “design” function should be carried in an integrated manner through each semester of the last two years and may be begun earlier if practicable [3, p. 81].While the implementation of the Grinter Report may have given too little emphasis to design as Edernotes, the Grinter Report assigns roughly equal time to the three areas of basic math and science,engineering science, and engineering design. The report recommends roughly a quarter of the curriculumfor each category, leaving a quarter of the time for general education, laboratories and other courses.Engineering
. During this session, to orient participants’ design efforts, we brieflydiscussed the concept of MR [21] and six popularly used definitions of MR [6] to theparticipants.The designer-research team synthesized the results of sessions 1 and 2, specifically focusing onthe needs of ECE students for both social and academic activities that encourage collaboration,and created fictional scenarios for laboratory and social activities that required teamwork in bothFigure 3: Screenshot of participants using the prototype MR system. A virtual classroom wascreated in Gather.town based on the classroom in which session 3 took place. Both remote andin-person students’ presence is represented by virtual avatars.in-person and online settings (see Figure 3). The
she led a Neutron Generators technology team. At NJIT, she truly enjoys teaching undergraduates and extensively uses her industrial experience for designing real life laboratory experiment challenges and projects for students; develops courses for a new Materials Engineering Program (started in Fall 2022), currently teaches Mechanical Behavior of Materials and Electrical, Optical, Magnetic and Thermal Properties of Materials (EOMT). She continuous teaching Chemical Engineering Laboratory for Seniors and other undergraduate classes at Materials and Chemical Engineering Department. ©American Society for Engineering Education, 2025 Let’s Find
Paper ID #48910High Altitude Robotic MonkeyMr. Huy Trung Huong, University of Bridgeport Huy Huong is a current undergraduate student at the University of Bridgeport, Bridgeport, Connecticut. Huong is receiving his BSc in Computer Science and Mathematics, with an expected matriculation date of May 2025. He currently serves as an undergraduate researcher at the Extreme Environments Laboratory for the School of Engineering under the direction of Dr.Jani M Pallis.Miss Sushma Gudi, University of Bridgeport Sushma Gudi is a Computer Science Engineering Assistant at University of Bridgeport, where she also earned her
˜ao Paulo. Professor of Physics at Mau´a Institute of Technology, since 1994 and President of Teacher’s Academy at the same Institution.Dr. Nair Stem, IMT - Graduated at Physics (Bachelor) at IFUSP, Master at Electrical Engineering and Doctor at Electrical Engineering at EPUSP. ©American Society for Engineering Education, 2025 Data Mining Application in an Introductory Engineering Physics LabAbstractThis study explores the application of data mining techniques in Physics laboratories forEngineering, aiming to enhance the educational process and students' understanding ofphysical phenomena. The primary objective is to analyze how the use of Orange DataMining software can facilitate the analysis of large
” (EDSI) which has a “physical Lab” component anda “curriculum” component that will impact all AE majors.The Experimentation and Data Science (EDS) course is inherently an evidence-based program dueto the heavy active learning component (hands-on laboratories). Such experiment-centricpedagogy has been successful in promoting motivation and enhancing academic achievement [4].Active Learning in Engineering CoursesActive learning in engineering education refers to instructional strategies that engage studentsdirectly in the learning process through activities like problem-solving, group work, hands-onexperiments, peer instruction, and inquiry-based learning. This encompasses a broad range ofteaching methods considered pedagogies of engagement
Paper ID #47213Lessons Learned From Microcontroller-Based Liquid Level ControlMr. Michael Charles Barkdull, University of Utah Michael C. Barkdull earned a combined BS/MS in Chemical Engineering at the University of Utah. As both a student and a teaching assistant, he has developed a passion for enhancing engineering education by integrating hands-on experiences with theoretical learning. In addition to academic achievements, Michael has gained practical experience during his internship at Idaho National Laboratory, where he developed and tested materials for real-world applications. He also contributed to undergraduate
Universidade de S˜ao Paulo. Professor of Physics at Mau´a Institute of Technology, since 1994 and President of Teacher’s Academy at the same Institution.Dr. Nair Stem, IMT - Graduated at Physics (Bachelor) at IFUSP, Master at Electrical Engineering and Doctor at Electrical Engineering at EPUSP. ©American Society for Engineering Education, 2025 Leveraging immersive environments in physics labs and flipped classrooms for engineering courses.This paper aims to explore the use of immersive (panoramic) video with hotspots as apre-class activity for an investigative physics laboratory on the topic of oblique launches,in conjunction with the flipped classroom methodology. The goal is to study
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
Paper ID #49532Predictive Modelling of a Continuously Variable Transmission for OptimalPerformanceKathryn Chludzinski, Youngstown State University - Rayen School of Engineering Kathryn Chludzinski is a graduate student in Youngstown State University’s (YSU) mechanical engineering program. Her research focuses on developing a laboratory for Dynamic Systems Modeling (DSM) students, utilizing a continuously variable transmission and inertia dynamometer. She has been a member of YSU’s SAE Baja team since the 2020 season. She is a certified machinist, having achieved her certification in 2019, and has been working in the
space mice orvirtual reality equipment. These devices restrict the broader adoption in education. To addressthese challenges, we developed and implemented TeleopLab: intuitive teleoperations to enableaccessible remote hands-on labs. TeleopLab allows students to remotely control a robotic arm andlab equipment in real time using a smartphone motion interface in conjunction with Zoom. Wedesigned TeleopLab to preserve the interactivity and real-world complexity of this process whiletransitioning the lab to an online format with minimal modification to the original lab content.This system was implemented in a professional laboratory course in an industry-led advancedmanufacturing training program at an innovation center in western Massachusetts
challenges through specialized IoT securitycourses 3 .This paper outlines the design and implementation of a hands-on IoT security class which isoffered in Florida International University that educates students about the fundamental conceptsof IoT and the most common security threats. By exploring various attack vectors, the courseaims to prepare students to develop generalized security solutions for these technologies.The course structure is innovatively designed to include a combination of immersive homeworkassignments, laboratory exercises, and a student project. Using a bonus-based grading system, thecourse aims to motivate students and enhance learning outcomes, as evidenced by improvedacademic performance throughout the course. The
enable students to learn key concepts ingeotechnical engineering in a virtual environment. Students can access various testing tools(e.g. thermal conductivity measurements and direct shear tests) through the game missions.They can also conduct parametric studies in the virtual laboratory to understand soilproperties under different geological conditions. Students can also perform parametricstudies in a virtual lab to understand the efficiency of heat transfer in geothermal piles. Thegame allows students to intuitively grasp complex theoretical concepts and practicaloperations through visualization and simulation tools. By completing the game's tasks,students can earn points and update the appearance of their characters, increasing
thefundamental principles of electrical engineering such as quantities and their units, providingexposure to electronics and the laboratory environment. Modules cover various aspects ofelectrical engineering in both analog and digital domains such as basic circuits with applications,including historical context, measurement units, and laboratory techniques. The courseincorporates project-based learning with basic component-level design, simulation, and circuit-level practices.Course 2: Electrical Engineering Clinic I: This course focuses on developing a comprehensiveunderstanding of the laboratory environment, covering topics such as laboratory safety protocols,basic equipment operation, requirements interpretation, and test plan creation and
interpreting the fundamentals of vibrations and control theory [4,5].Hands-on experiences are especially crucial for engineering students to help them bridge the gapbetween theory and its application [6]. Hands-on equipment utilized in vibrations and controllabs allows students to engage with physical systems, validate theoretical concepts, and designand implement control systems. However, most mechanical engineering courses, such asvibrations and control theory, are 3-credit lecture-only courses without integrated laboratories,unlike many electrical, computer, and mechatronics programs [7]. Moreover, since the pandemic,digital learning tools have become necessary complements, not just accessories, to supportstudent engagement and learning. They offer
different levels as well as laboratories. Very passionate about education and has exp ©American Society for Engineering Education, 2025 1 Session 5Case Studies on Hands-on STEM Program in Chemical Engineering for High School Students Ali Gharib Ahmed Elsaid Abdulla Al-Dabbagh The University of Texas at Austin Eindhoven University of Technology Qatar Academy for Science & Austin, Texas, USA Eindhoven, Netherlands Technology, Doha, Qatar
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