, David Caughey, et al. "Hands‐on CFD educational interface forengineering courses and laboratories." Journal of Engineering Education 95, no. 1 (2006): 63-83.[5] Hoorfar, Mina, Homayoun Najjaran, and William Cleghorn. "Simulation and animation ofmechanical systems to enhance student learning." In 2002 Annual Conference, pp. 7-1001. 2002.[6] Adjouadi, Malek, and M. Ayala. "Introducing neural studio: An artificial neural networkssimulator for educational purposes." Computers in Education Journal 14, no. 3 (2004): 33-40.[7] Asmuin, Norzelawati, and A. Ismail. "The Roles of CFD in Enhancing Teaching andLearning Process and Its Potentials in Solving Real Engineering Issues." In Defect and DiffusionForum, vol. 348, pp. 273-278. Trans Tech Publications
(ME). Presently, there is a notableabsence of engineering laboratories available to any Keiser University students. Thus, theintroduction of this facility will provide invaluable hands-on learning experiences for all STEMstudents.The connection between theory and practice has long been recognized as one of the mostchallenging aspects to teach in engineering education. Hands-on experience in a laboratoryenvironment offers a vital tool to solidify concepts covered in lecture courses. The proposedproject aims to significantly enhance undergraduate instruction related to recent trends anddevelopments in emerging technologies, including alternative energy, drone technology, andbiotechnology. The laboratory will supplement various engineering
." In 31st Annual frontiers in education conference.Impact on engineering and science education. Conference proceedings (Cat. No. 01CH37193),vol. 2, pp. F2A-F23vol. IEEE Computer Society, 2001.12. Flotterud, John D., Christopher J. Damm, Benjamin J. Steffes, Jennifer J. Pfaff, Matthew J.Duffy, and Michael A. Kaiser. "A micro-combined heat and power laboratory for experiments inapplied thermodynamics." In ASME International Mechanical Engineering Congress andExposition, vol. 54914, pp. 233-240. 2011.13. Mettes, C. T. C. W., A. Pilot, H. J. Roossink, and Hennie Kramers-Pals. "Teaching and learningproblem solving in science: Part II: Learning problem solving in a thermodynamics course."Journal of chemical education 58, no. 1 (1981): 51.14. Haber
, effectiveness, and pedagogical value ofstudent-generated stories in a fluid mechanics course part of the mechanical engineeringtechnology curriculum. This application, which addressed Accreditation Board for Engineeringand Technology (ABET)’s Criterion 3 and Criterion 5c, was implemented in a four-credit hour(ch) senior-level applied fluid mechanics course, with a 3ch lecture and 1ch laboratorycomponent. The course is the second in fluid mechanics’ sequence and covers topics likepipeline systems design, pump selection, flow of air in ducts, lift and drag, etc. The originalinstructional design used a blend of traditional in-class lectures and problem-based learningfocused on project-based and other laboratory exercises.To further improve the students
sessions held over two semesters. A month before the firstseminar, a survey was distributed to faculty members to gather insights on integrating smartmanufacturing into SoET courses. To encourage more responses, the survey was sent againtwo weeks later.In the first two seminars, participants received innovative lecture materials aligned withmultiple modalities teaching approaches. They also received laboratory modulesincorporating relevant smart manufacturing equipment. Additionally, the seminarsemphasized designing course projects that utilize the smart manufacturing facility, focusingon integrating smart manufacturing technologies and applications into undergraduateeducation.During the first seminar, one mechanical engineering technology (MET
to joining ODU in 2013, Dr. Ayala spent three years as a Postdoctoral Researcher at the University of Delaware where he expanded his knowledge on simulation of multiphase flows while acquiring skills in high-performance parallel computing and scientific computation. Before that, Dr. Ayala held a faculty position at Universidad de Oriente in the Mechanical Engineering Department where he taught and developed graduate and undergraduate courses for a number of subjects such as Fluid Mechanics, Heat Transfer, Thermodynamics, Multiphase Flows, Fluid Mechanics and Hydraulic Machinery, as well as Mechanical Engineering Laboratory courses. In addition, Dr. Ayala has had the opportunity to work for a number of engineering
withthe technologies that they teach [5].Additionally, Cheng et al. write that, “… employers hold a view that responsibility for graduateemployability needs to be shared between students, HEIs (higher education institutions) andemployers …” and “… for this to function effectively employers will need to increasecollaboration with HEIs to make their needs known, to increase student internship opportunitiesand to provide employees with professional on-the-job learning” [7]. One of the conclusionsfrom this study was the partnerships that must exist between industry, the colleges anduniversities, and the students to ensure a prepared and functional work force.One of the major challenges encountered by most companies implementing Industry 4.0 ishaving
Engineering Education, 2019, Accessed: Oct. 21, 2023. [Online]. Available: https://eric.ed.gov/?id=EJ1220296[24] M. Koretsky, C. Kelly, and E. Gummer, “Student perceptions of learning in the laboratory: Comparison of industrially situated virtual laboratories to capstone physical laboratories,” Journal of Engineering Education, vol. 100, no. 3, pp. 540–573, 2011, doi: 10.1002/j.2168-9830.2011.tb00026.x.[25] A. P. Fagen, C. H. Crouch, and E. Mazur, “Peer Instruction: Results from a range of classrooms,” Phys. Teach., vol. 40, no. 4, pp. 206–209, Apr. 2002, doi: 10.1119/1.1474140.[26] T. Gok and O. Gok, “Peer Instruction in chemistry education: Assessment of students’ learning strategies,” Learn. Strateg
Vehicles.16. Arce, D., Balbuena, J., & Cuellar, F. (2019, December). A Low Cost Self-Driving Cars Project Based Course for Undergraduate Students in Developing Countries. In 2019 IEEE International Conference on Engineering, Technology and Education (TALE) (pp. 1-8). IEEE.17. Lotfi, N., Novosad, J. A., & Phan-Van, H. (2019, June). A multidisciplinary course and the corresponding laboratory platform development for teaching the fundamentals of advanced autonomous vehicles. In 2019 ASEE Annual Conference & Exposition.18. Brown, N., Rojas, J. F., Moon, A. K., Alhawiti, A., Patil, P. Y., Kadav, P., ... & Asher, Z. D. (2024, March). Development of a 3-Credit Multidisciplinary University Autonomous Vehicles Course
Paper ID #39370Implementing an Effective ABET Assessment Program for a New BachelorofScience in Engineering Technology DegreeDr. Qudsia Tahmina, The Ohio State University at Marion Dr. Qudsia Tahmina, The Ohio State University at Marion Dr. Qudsia Tahmina is an Assistant Professor of Practice in the Department of Electrical and Computer Engineering at The Ohio State University. She received her Ph.D. in Electrical Engineering from the University of Wisconsin-Milwaukee. She teaches first- and second-year courses at the Marion campus. She has developed an interest in engineering education, teaching pedagogies and strategies
these projects will help other educators develop ROS-based simulation projects as part of a course or a stand-alone course for teaching robotics.IntroductionThe Robot Operating System (ROS) has gained wide currency for creating working robotic sys-tems, initially in the laboratory and then in industry. The primary programming environment forthose working on ROS includes C++, Python, or Java. MathWorks recently released its RoboticsSystems Toolbox and ROS Toolbox. Using MATLAB to interact with robotic simulators (suchas Gazebo) and physical ROS-compatible robots (such as TurtleBot) becomes a new option. Theexisting toolboxes in MATLAB enable the development and verification of robotic control algo-rithms more quickly. Though it is
Paper ID #38744Involving Multidisciplinary Undergraduate Students in the Design andDevelopment of an Innovative Device for the Detection of Plant NematodesDr. Junkun Ma, Sam Houston State University Dr. Junkun Ma is currently a Professor of Mechanical Engineering Technology at Sam Houston State University (SHSU). He teaches mechanics of materials, manufacturing processes, CAD, applied fluid mechanics, etc., courses. His research interests include net-shape fabrication of sintered ceramics, numer- ical simulation using FEM, and engineering and technology educationDr. Faruk Yildiz, Sam Houston State University Faruk Yildiz
and interactions. This paper evaluates theuse of BLE beacons as part of a real-time social interaction capture system, called IDEAS. Ina laboratory setting, the relationship between beacon signal strength (RSSI), distance, and ori-entation was examined to validate a proximity detection metric. A preschool classroom studyfurther tested the ecological validity of the real-time location system by comparing interactionsdetected by the automated system with those recorded by a traditional researcher-led method. Inorder to align the differing sampling methods of IDEAS and the traditional researcher-led method,we developed an algorithm to down-sample the beacon data. The results suggest a partial align-ment between beacon-detected interactions and
good example of this occurred at the University of Tennessee in the late 1990s [3]. At theUniversity of Tennessee [3] the two first-year courses were redesigned in response torecommendations of an industrial advisory board and ABET. The result was a FYE programwhich was deemed the “Engage Program”. The first semester course was a non-calculus-basedapproach that focused on computer programming, graphic skills, and problem solving. Thesecond semester course focused more on calculus-based content with emphasis on statics anddynamics. Basic concepts would be presented in a one-hour lecture and the concepts werereinforced during low-tech, hands-on laboratory exercises. Additionally, students would meetwith graduate teaching assistants in a
. 01CH37193),vol. 2, pp. F2A-F23vol. IEEE Computer Society, 2001.12. Flotterud, John D., Christopher J. Damm, Benjamin J. Steffes, Jennifer J. Pfaff, Matthew J.Duffy, and Michael A. Kaiser. "A micro-combined heat and power laboratory for experiments inapplied thermodynamics." In ASME International Mechanical Engineering Congress andExposition, vol. 54914, pp. 233-240. 2011.13. Mettes, C. T. C. W., A. Pilot, H. J. Roossink, and Hennie Kramers-Pals. "Teaching and learningproblem solving in science: Part II: Learning problem solving in a thermodynamics course."Journal of chemical education 58, no. 1 (1981): 51.14. Haber‐Schaim, Uri. "The role of the second law of thermodynamics in energy education." ThePhysics Teacher 21, no. 1 (1983): 17-20.15. Dukhan
understanding of engineering technology students. She teaches in an active learning style which engages and develops practical skills in the students. ©American Society for Engineering Education, 2025 Course on Renewable Energy How to Revamp the ContentAbstractThe field of renewable energy is constantly changing and adapting to the needs of our society asnew developments and knowledge are presented. As a result, courses that focus on and provideinsight into these topics can quickly become outdated. Thus, updating and managing theinformation presented in those courses becomes necessary to prepare future engineers andscientists and share the process used to provide students with the current state of
-doctoral fellowship at Lawrence National Laboratory focusing on com- putational analysis for nonlinear seismic analysis of Department of Energy nuclear facilities and systems. After joining SFSU in 2016, she established an active research lab at SFSU with a diverse group of under- graduate and Master’s level students. For her engineering education research, she is interested in exploring how to use technology such as virtual reality and 3D printing to enhance student engagement. She is an active member of ASCE, ASEE, and SEAONC.Shah Rukh Humayoun, San Francisco State UniversityKhanh NguyenYongjian Pan ©American Society for Engineering Education, 2023 Reinforcing Human-Technology Interaction Theory
required more real-world planning (such as the use of a real laboratory). However, creatorscite the cost of maintaining a real laboratory and general lack of access to a lab as a reason forsimulating the environment in VR.Best practice: • Identify topics that fall into the DICE framework to justify the use of VR. • Carefully weigh the benefits of teaching in AR, VR, or sticking to traditional methods before making a commitment.Identifying PedagogyA common critique for VR use in education is that pedagogy comes second to the novelty of thetechnology [9, 21]. In teaching, pedagogy should be a priority, no matter the medium. Therefore,it is essential that instructors understand what educational theories align well with VR. The mostcommonly
design. His current teaching load primar- ily consists of courses related to advanced embedded digital systems.Ms. Bhavana Kotla, Purdue Polytechnic Institute, Purdue University Ph.D. Candidate at the Department of Technology Leadership and Innovation, Purdue Polytechnic, Purdue University, Indiana, USA. Current area of research: Program Assessment in Entrepreneurially Minded Curriculum/Programs.Dr. Lisa Bosman, Purdue University Dr. Bosman holds a PhD in Industrial Engineering. Her engineering education research interests include entrepreneurially minded learning, energy education, interdisciplinary education, and faculty professional development. ©American Society for Engineering
Paper ID #41192PLC Multi-Robot Integration via Ethernet for Human Operated Quality SamplingJeevan Shridhar Devagiri, Michigan Technological University Masters in mechatronics and Robotics from Michigan technological university, interest in Automation and Controls.Dr. Paniz Khanmohammadi Hazaveh, Michigan Technological University Dr. Hazaveh received her PhD in Electrical and Computer Engineering from the Michigan Technological University in 2018 with a focus on Single Electron Transistors. She is the program director for BS in Mechatronics/EET and an associate teaching professor in the department of Applied Computing.Dr
anxious or unqualified to present complex material,particularly in technical courses. The faculty may resist peer instruction because of concernsabout maintaining control of the material delivery or being unsure of the method’s effectiveness.There could be class management challenges – too many students, managing allotted time, fairand even grading, how to ensure quality presentations by the students. Many of these challengescan be offset by structured guidance, clear rubrics, and highlighting the benefits of peerinstruction to the class. There are examples of success in a laboratory setting [10] in which astrong positive relationship between preparation and knowledge of the student-teacher wasshown as well as higher understanding of students
Paper ID #38629Evolving Engineering Technology Capstone Projects to Bring StudentsCloser to IndustryProf. Susan Scachitti, Purdue University Northwest Susan Scachitti is a Professor and Chair of the Department of Engineering Management, Systems and Technology at the University of Dayton and Professor Emeritus of Industrial Engineering Technology at Purdue University Northwest. Professor Scachitti consults and teaches in traditional areas of Industrial Engineering which include Total Quality techniques and organizational change.Prof. James B. Higley P.E., Purdue University Northwest JAMES B. HIGLEY, P.E. holds the rank of
Paper ID #39694Student Self-Assessment of Knowledge to Encourage IndividualUnderstanding of StrengthsDr. Megan Prygoski, Purdue University at West Lafayette (Polytechnic) Dr. Prygoski has been teaching Mechanical Engineering Technology at Purdue University’s South Bend campus for nine years. She has her B.S. in Mechanical Engineering from the University of Arizona and a M.S. and Ph.D. in Mechanical Engineering from the University of Notre Dame. ©American Society for Engineering Education, 2023 Student Self-Assessment of Knowledge to Increase Understanding of
needed credits within each category. However, students have two independent 3-credit-hour elective selection options. Monroe Community College is in Rochester, New York. The College offers an Associate ofApplied Science Engineering (A.A.S.) degree in several areas. The Biotechnology degreeprogram is presented inTable 7 in the semesterformat. The inspection ofTable 7 reveals the definingcharacteristics of theprogram. First, the programhas a four-credit-hourcourse structure. The“extra” hour accommodatesthe included laboratory inmost of the program’srequired courses. Second, the program’s course selection permits higher-level course options intheir respective discipline starting in the first semester of study.St. Lewis Community College is in
thetheoretical background necessary to provide a meaningful opportunity for students to performanalysis in the laboratory portion of the class. The purpose of this activity is to bring students toa common level of proficiency so that they can perform an iterative engineering designexperiment investigating the performance of a small vertical axis wind turbine, VAWT.BackgroundBeing mindful of how students acquire knowledge, Turns and Van Meter [1] discuss teachingmethods to improve problem solving, informed by cognitive science. Part of the objective of thisintroduction to engineering and technology course is to show students that engineers work tosolve concrete problems and improve solutions. For many of the students, they are embarking onthe first step
Paper ID #41143Motivating Students to Engage, Collaborate, and Persist with Classroom PodcastCreationDr. Thomas Lucas, Purdue University Dr. Lucas’ primary goal as a professor is to engage with students in the classroom and inspire them to develop their passion, understanding, and appreciation for STEM-based research and industry roles. This is accomplished by providing well-crafted and innovative learning experiences in engineering technology courses and through extracurricular outreach. His research background is in 3D (out-of-plane) micro-electromechanical systems (MEMS) sensor and actuator design. His current teaching
as the Mechatronics concentration coordinator in the Engineering Tech- nology department. Additionally, he is currently completing the final year of an EdD in Educational Leadership. Other research interests include Industry 4.0, regional workforce development, and gender disparities in the engineering fields.Alyssa Young, Austin Peay State University ©American Society for Engineering Education, 2023 From Grant to Graduates: The Development of a Regionally Unique Siemens Level 3 Mechatronics Engineering Technology ProgramAbstractAs the result of a Department of Defense (DoD) grant in 2017, training and laboratory equipmentwere procured, and a
Paper ID #49373ABET Accreditation for a Bachelor of Science in Engineering TechnologyDegree – Preparation for Readiness ReviewDr. Qudsia Tahmina, The Ohio State University at Marion Dr. Qudsia Tahmina, The Ohio State University at Marion Dr. Qudsia Tahmina is an Associate Professor of Practice at The Ohio State University at Marion and teaches first and second year engineering courses. She is also involved in curriculum development, outcomes assessment and ABET accreditation.Ms. Kathryn Kelley, The Ohio State University Kathryn Kelley serves as executive director of OMI; she has more than 20 years’ experience in program
performed by senior year students offer a rich environment to apply conceptswhere students may apply concepts and knowledge gained throughout their college experience.This paper examines project-based learning (PBL) implementation in a capstone project course sequencein the School of Engineering Technology at Purdue University. The course structure is designed tomotivate students and engage them throughout a two-semester long project. Various sources wereidentified to select proper topics for the different teams. These sources include partners from industry,community foundations, local authorities and companies. Other sources could be research topics withprofessors in the same institute or other research laboratories. The projects are designed with
time, budget, safety, and stakeholder needs and perceptions—that are less apparent intraditional classroom settings [10]. Accreditation agencies (e.g., ABET) increasingly recognizethe value of such experiences, as they cultivate practical competencies related to professional andethical responsibilities, communication, teamwork, and life-long learning (ABET, 2024, [14]).Consequently, the integration of PBL in the form of industry-sponsored capstones serves as apowerful instructional approach, bridging the gap between theoretical knowledge and practicalapplication while preparing engineering graduates for the complexities of professional practice.However, teaching strategies employed in capstone/senior design courses are complex andvariate