Paper ID #37182Using the Gather Platform to Support Peer-Learning andCommunity in a Virtual Bioengineering Laboratory CourseLeAnn Dourte Segan LeAnn Dourte Segan is a Practice Associate Professor in the Department of Bioengineering at the University of Pennsylvania. Her interests include bringing evidence-based teaching methods to the classroom and increasing the sense of community and belonging in the undergraduate engineering experience. © American Society for Engineering Education, 2022 Powered by www.slayte.com Using the Gather Platform to Support Peer
Paper ID #37681Work in Progress: Enhancing Undergraduate BiomedicalEngineering Laboratory Reports through Information andData Literacy InstructionAlexander James Carroll (Librarian for STEM Research) Alex Carroll, MSLS, AHIP, is the Librarian for STEM Research at the Vanderbilt University Libraries. Alex serves as a liaison librarian for the School of Engineering and STEM academic units within the College of Arts and Science, supporting the research of faculty and developing curriculum-integrated information literacy instruction programs for students in the sciences. Alex is the Interim Editor-in-Chief of the
Paper ID #36821Improving Student Laboratory Experiences throughIntegration of Instructions, Worksheets, and Computer Codeusing LiveScriptsDiane L Peters (Associate Professor) Dr. Diane Peters is an Associate Professor of Mechanical Engineering at Kettering University in Flint, MIAustin L Nash (Assistant Professor) © American Society for Engineering Education, 2022 Powered by www.slayte.com Improving Student Laboratory Experiences through Integration of Instructions, Worksheets, and Computer Code using LiveScriptsAbstractAt Kettering University
Paper ID #36760Unified approach to teaching uncertainty across a three-course mechanical engineering laboratory sequenceEric Dieckman I am an Assistant Professor of Mechanical Engineering and coordinator of both the BSME and interdisciplinary Ph.D. in Engineering and Applied Science programs at the University of New Haven. My current research focus is on the intersection of high-performance numerical simulations of wave propagation and scattering, time-frequency wavelet signal processing, and ML approaches to find useful information hidden inside complex RF and acoustic signals. Some recent projects include
Paper ID #37702Work in Progress: Assessing Biomedical Engineering StudentEngagement in Asynchronous and Synchronous VirtualPhysiology Laboratory ExperiencesKarly S FranzDawn M Kilkenny Associate Professor, Teaching Stream in Biomedical Engineering & Engineering Education at the University of Toronto, CANADA © American Society for Engineering Education, 2022 Powered by www.slayte.com Work in Progress: Assessing Biomedical Engineering Student Engagement in Asynchronous and Synchronous Virtual Physiology Laboratory
, M. Dubois and J. P. Trovao, “Problem- and Project-BasedLearning in Engineering: A Focus on Electrical Vehicles,” 2016 IEEE Vehicle Power andPropulsion Conference (VPPC), pp. 1-6, 2016.[4] R. Pucher, A. Mense, and H. Wahl, “How to Motivate Students in Project Based Learning,”6th IEEE Africon Conference in Africa, vol. 1, pp. 443-446, Oct. 2-4, 2002.[5] L. McLauchlan and M. Mehrubeoglu, “A Laboratory Exercise - Unmanned Vehicle Controland Wireless Sensor Networks,” 2014 ASEE Annual Conference and Exposition, Indianapolis,IN, USA June 15-18, 2014.[6] A. Maiti, A. Raza and B. H. Kang, “Teaching Embedded Systems and Internet-of-ThingsSupported by Multipurpose Multiobjective Remote Laboratories,” in IEEE Transactions onLearning Technologies, vol
Paper ID #37704Leveraging ThingsBoard IoT Service for RemoteExperimentationAhmet Can Sabuncu (Assistant Teaching Professor) Dr. Sabuncu holds a Ph. D. in Aerospace Engineering from Old Dominion University. Dr. Sabuncu’s professional interests spans from engineering education research, engineering laboratory education, history of science and engineering, thermo- fluids engineering, and microfluidic technology. Dr. Sabuncu is eager to discover next generation workforce skills and to educate next generation of engineers who will carry Industry 4.0 forward considering the needs of the global world.Kerri Anne Thornton
Paper ID #37979Adapting through a Pandemic: Creating a Hands-OnMechatronics Laboratory with Team-Based Collaboration forRemote LearningSilverio LopezNicolas Gonzalo Perticari PesciDavid Quintero (Assistant Professor) Dr. David Quintero received his B.S. degree in Mechanical Engineering with a Minor in Mathematics from Texas A&M University, College Station. He went on to complete his M.S. degree in Mechanical Engineering from Stanford University. He then spent a few years as a robotics and controls engineer in industry before returning to pursue his Ph.D. degree in Mechanical Engineering from The University of
pedagogy, antenna theory, and remote sensing. © American Society for Engineering Education, 2022 Powered by www.slayte.com Design of a Wind Tunnel: A Student Project to Design and Build Their Own Wind Tunnels as the Culmination of Fluid Mechanics LaboratoryAbstractFluid Mechanics Laboratory (or a similarly titled course) is an integral part of any mechanicalengineering curriculum. One of the instruments used to demonstrate several key principles offluid flow is the wind tunnel. Currently, our department does not have a wind tunnel that canadequately demonstrate several desired fluid flow concepts to the students. Therefore, as part
Paper ID #36497Using Arduino Kits and Discord to Implement A FullyRemote Laboratory Course During the COVID-19 PandemicTseHuai Wu Dr. TseHuai Wu is a Professor of the Practice at University of Maryland, Baltimore County (UMBC) in Mechanical Engineering. He received his Ph.D. from the George Washington University in 2016. His main interest area includes robotics, mechatronics, and autonomous vehicle controlFoad Hamidi (Dr.) © American Society for Engineering Education, 2022 Powered by www.slayte.com Using Arduino Kits and Discord to Implement A Fully
Paper ID #37187Work in Progress: Practically Present: Developing a novelapproach to remote laboratory learning and engagementthrough LabMateEileen Johnson Eileen Johnson received her bachelor’s and MS in bioengineering from the University of Illinois at Urbana-Champaign. She previously worked in tissue engineering and genetic engineering throughout her education. During her undergraduate career, she worked with Dr. Brendan Harley developing biomaterial implants for craniomaxillofacial defects and injuries. In graduate school, she worked with Dr. Pablo Perez-Pinera working on new genetic engineering tools. There
Paper ID #37730WIP: A novel problem-driven learning laboratory course inwhich biomedical engineering students conduct experimentsof their own design to answer an authentic research questionBalakrishna S. Pai (Director of Instructional Laboratories)Ketki Patil (Research Technologist II)Todd Fernandez Todd is a lecturer in the Wallace H. Coulter Department of Biomedical Engineering at Georgia Institute of Technology. His research interests are engineering students beliefs about knowledge and education and how those beliefs interact with the engineering education experience.Paul Benkeser (Senior Associate Chair) Paul J
courses related to thermo-fluid systems – including Engineering Thermodynamics, Fluid Mechanics, Thermo/Fluids Laboratory, and Applied CFD. In addition to her education research and assessment related work, she involves graduate and undergraduate students in her technical research spanning validation of CFD models for aerospace and renewable energy applications as well as optimizing efficiency of thermal-fluid systems. In her free time, she is likely out sailing! © American Society for Engineering Education, 2022 Powered by www.slayte.com Leveraging Entrepreneurial Minded Learning and Makerspace Prototyping to an Advance Embedded Systems
areultimately asked to evaluate the performance of the meter regarding the overall energy loss of themeter.IntroductionIn the field of engineering, it is important for students to understand the engineering paradigmthat moves from design, to simulations, and finally to physical testing. Simulations are animportant tool to initially evaluate a design since they are relatively low cost compared to lab orfield tests and facilitate quicker iteration [1]. The simulations can then be used to develop atesting plan that can be implemented in the laboratory to complete the evaluation of a design.Students must also be trained to recognize that simulations are not reality and thus experimentalresults might differ from simulation results. When results from a
of typical undergraduateelectrical and computer engineering (ECE) programs consist of technical classes that teachstudents the fundamentals of their field. Project-based learning that engages students in moreauthentic applications of knowledge is often absent from these courses. These years have notableattrition, but relevant design projects can motivate engineering students by reminding them whatthey enjoy about the field and showing them that their work can benefit society [1], [2]. In thispaper, we describe development of a project in a fourth-semester ECE laboratory design coursethat engages students in designing an autonomous tractor. This project was created to use skillsacross first- and second-year courses to make a challenging but
Laboratory and Project Exercises Exercise Topic Comments Lab 1 Design of a Digital Lock Controller A warm up exercise. Lab 2 Design of a Register File Easy step toward a FIFO. Lab 3 Design of a Synchronous FIFO Buffer A key component for the projects. Lab 4 Design of a Digital Timer Gain familiarity with clock dividers. Lab 5 Design of a Baud Rate Generator Programmable using fractional dividers. Data register interfaces for Project step 1 communications FIFO Project step 2 FIFO status
basic signals and systems, convolution andimpulse response, Fourier series and transform, Laplace transform, state variable analysis ofcontinuous and discrete systems, sampling, etc. This course has a broad range of applications inelectrical and system engineering, including but not limited to seismic data processing,communications, speech and image processing, defense electronics, consumer electronics, andconsumer products. It also has applications in non-engineering fields whereas time series data isused such financial market analysis, weather predication, etc.This course is accompanied by laboratory assignments to help students gain a deeperunderstanding of topics. Simulation-based experiments are introduced by many authors. In
crowd were so impressed withthe unit zooming off the field after rotating for 15 seconds that a new trajectory was requested.This time, the unit would enter the field, travel at full speed for 50 yards, do several shortrepositioning, spin, and dance movements, then zoom off the field at the end of the performance.The team's energy models predicted that the platform possessed the battery capacity to do this.Tests on the field verified that the platform did so and that the battery models were accurate inpredicting battery performance.The completed unit is shown in a laboratory in Figure 5.[7] When the paper is presented at theconference, video of the unit in operation at a football game will be shown.[9] In the video, thepiano enters at 5:45 with
Paper ID #37926BYOE: Energy Loss in Pipe Systems (iRL)Eliza A Banu (Lecturer)Dominik May (Dr.) Dr. May is an Assistant Professor in the Engineering Education Transformations Institute. He researches online and intercultural engineering education. His primary research focus lies on the development, introduction, practical use, and educational value of online laboratories (remote, virtual, and cross-reality) and online experimentation in engineering instruction. In his work, he focuses on developing broader educational strategies for the design and use of online engineering equipment, putting these into practice
. These types of videos vary from general topic overviews to coursespecific content. Certain types of courses and content have long been identified as appropriatefor online delivery, like software-based courses. However, instructors have been slow to adoptonline delivery for hands-on laboratory exercises or architectural studios.Because of this post-pandemic paradigm shift, there is an opportunity to identify the associatedshift in student perceptions. A survey instrument was developed to assess student perceptionsabout supplemental instructional videos. All of the students surveyed are enrolled in courseswhich provide supplemental instructional videos through their LMS. The survey was not limitedto perceptions about current courses. Students
undergraduate engineering programs. As the goal is toexpose students to the tools they will need to solve actual problems, these classes are centeredaround team projects in a laboratory setting, with some lecture delivery in a supporting function.Physical distancing rules, as well as reduced/remote access of laboratories and equipment duringthe COVID-19 pandemic, posed significant challenges to the continued delivery and greatlyhindered achievement of the stated educational outcomes of these classes. A southwesterninstitution developed new and creative strategies to address these challenges while continuing tooperate under these constraints. Some were temporary, while others led to discoveries thatmodified the class delivery in the long term thus
Education Head of R&D, Small Satellite College of Engineering Transformations Institute, Research Laboratory University of Georgia College of Engineering University of Georgia mtrudgen@uga.edu University of Georgia Parker.ensing@uga.edu Dominik.may@uga.eduAbstract(BYOE) This paper presents the design, fabrication, and implementation of a flywheel system for anadvanced feedback control course. The flywheel setup can be used either in person or in remote labcapacities. Feedback control is a course taken by most electrical, mechanical, and computer engineers.In such a course, students learn to design feedback control
, introductory lab courses play a crucial role in exposingstudents to the breadth of topics, experimental techniques, and apparatuses in the field. They haveplayed a long-standing role in rounding out the practical portion of an engineer’s education [1].These introductory courses are active, collaborative, cooperative, and problem-based in their verynature [2]. Students are in a hands-on laboratory space, working to collect data necessary to testan experimental hypothesis. Prince [2] defines active learning as “any instructional method thatengages students in the learning process." Laboratory classes certainly fall under thatumbrella.The goal of active learning in a mechanical engineering laboratory context is multi-fold. Thecourse should teach students
dimensionless drag (i.e., a dragcoefficient) and a collection of variables that relate fluid properties, geometry, and object speed(aka the Reynolds number). But students at home cannot easily measure drag forces (or infer themfor a wide range of objects and velocities). As another example, the results of deformation ofdroplets as they impact surfaces can be presented in a universal way using dimensionless numbers(dimensionless deformation and Weber number) [6]; however, this phenomenon requiresequipment beyond the means of even a typical undergraduate teaching laboratory! A phenomenonwhich is accessible with limited materials, and which can serve as a dimensional analysis example,is that of the motion of a heaving buoy. In addition, there is a simple
and 3D computer models. However, few classes were usingnumerical simulation models in teaching at that time. PE faculty members continued using traditional teachingmethods, such as backboard and PowerPoint presentations including graphs and sketches. In 21 century, tremendouschanges have been made in teaching PE classes. Almost every petroleum engineering program started developing andusing laboratories to conduct experiments that help students’ attainment of course objectives, such as core, fluid, anddrilling labs. Since 2014, Bob L. Held department of petroleum engineering has adopted the use of visualizationmodels in teaching. More than seven lab-scale models were built and used in multiple PE classes. In this section ofthe paper, only
had been extensively redesigned to be more open-ended in thepast [2] and the goal was to be able to maintain this open-ended and hands-on character despitethe need for COVID related distancing.The need for hands on experimentation in engineering laboratories has been well established.Feisal and Rosa determined that hands on laboratory activities are necessary in order to teachstudents skills such as choosing sensors, comparing theoretical and experimental results, andpracticing experimental design among other skills [3]. Kolb’s experiential learning cycle has twostages which require hands on activity, namely, the concrete experience stage and the activeexperimentation stage [4]. Abdulwahed and Nagy [5] applied Kolb’s theory specifically
to fluids, while a Bachelor ofScience Engineering Technology (BS-ET) upper-level student takes a Fluid Power Systemscourse with a focus on a more practical or applied approach to fluids. These differences inemphasis in the Fluids courses are also true in general between the BSE and BS-ET programs.This paper shows the implementation and assessment of a hands-on laboratory experienceactivity using the ET fluid power trainers for the BSE Fluid Dynamic course students. For thelaboratory activity, the Industrial Fluid Power Trainers MF102 Series from the Fluid PowerTraining Institute were used to allow the students to directly work with the concepts of PressureDrops, the relationships between Pressure-Force-Area, and the importance of the