students and professors alike.Specifically, in terms of engineering courses, access to resources such as laboratories, institution-specific software, and classroom technologies are severely limited and difficult to replicate forremote settings. New and revised classroom structures have been created to accommodate publichealth concerns while continuing to deliver effective education. Universities have adapted curriculum to be completely virtual or a combination of virtualand in-person learning. The combination of remote and traditional face-to-face learning,sometimes referred to as a hybrid or blended structure, integrates online discussion with limitedin-person class times [1]. Due to reduced capacities in classrooms, groups of students in
Paper ID #37123Dean’s Racial Justice Curriculum Challenge (WIP)Paula Rees (Assistant Dean for Diversity) Assistant Dean UMass Amherst.Scott A Civjan (Professor)Erin Baker (Professor)Promise MchengaHannah WhartonJacqueline E Thornton (Software Developer)Lia Marie CiemnyEsha Ayman UddinSamantha WojdaShannon Roberts Dr. Shannon C. Roberts is an Assistant Professor in the Mechanical and Industrial Engineering Department and the co- director of the Human Performance Laboratory at the University of Massachusetts Amherst (UMass). Prior to joining UMass, she was a technical staff member at MIT Lincoln Laboratory in the Cyber
support undergraduate lab activities utilizing software-defined radios3. In thispaper, we present a comparison between using MATLAB with the Raspberry Pi 4 B and usingMATLAB with the mini PC.Using an intermediate computing device has the potential to simplify computer debugging issueswithin an undergraduate laboratory setting where students are using personal computing devicesas their primary computer and where they may also be working on engineering laboratoryactivities involving student-developed hardware, less typical software packages or drivers, orexternal power supplies or amplification.Raspberry Pi ConfigurationThe Raspberry Pi 4 B was used as an intermediate computing device has 4 GB of RAM and aQuad core Cortex-A72 processor4. MATLAB
in mind. Finally, ourstudy design included an emphasis on technical communication development (3).MethodsThree undergraduate Bioengineering courses, covering a range of topics and academic levels, wereselected. These courses included 1 sophomore core course (Bioengineering Fundamentals andFundamentals of Systems Physiology), one junior core laboratory course (BiomedicalInstrumentation) and one senior elective laboratory course (Troubleshooting for Clinically-Relevant Biomedical Equipment). Students enrolled in these courses were offered extra credit tocomplete an educational video assignment, which consisted of: 1. independently selecting and researching a course content-related topic, 2. developing a script and visuals that communicates
teachers found the experience to bevaluable and listed the people and the research environment as the two most impactful areas of the program.This paper will further discuss the specifics of this novel REU/RET program as well as the outcomes.IntroductionAn REU/RET Site project funded by NSF DMR program has provided research experiences for 14 REUand 6 RET participants in Chemical Engineering, Mechanical Engineering, Biomedical Engineering,Chemistry & Chemical Biology Laboratories of Stevens. 6 REUs and 2 RETs participated virtually the firstyear due to COVID-19 and 8 REUs and 4 RETs participated in-person the second year.The goals of the REU/RET program were four-fold: 1. Create a vibrant research environment for allparticipants that offers
was the first time infive years that the Island suffered a direct hit from a storm, and this time it was different. Hurricane Fiona 2did not bring the highest winds, but it arrived as a heavy rain system that poured over 20 inches of rain injust under two days. This impact completely severed the electrical system of the island along with aninvisible adversary that made the recovery even worse, humidity in electrical systems. All in all, we wenttwo weeks without classes; and just when we came back from the Hurricane, a political strike from theworkers, left us with more days without access to classes and laboratories. This might have
superfluous hardware. The solution to thiswould be to implement virtual Iot laboratories which could be done at a reduced risk and cost.Using Virtual Machines (VM) also allows flexibility in the delivery of the coursework.Prior Work (Literature Review)J. He et al [8] created a physical IoT lab consisting of Raspberry Pi and Arduino boards and aset of sensors with Zigbee as the wireless communication method. They developed a lab for anEmbedded Systems Analysis and Design course. The lab was a collection of self-containedmodules which presented concepts and hands-on exercises on embedded systems. Thisapproach requires the use of physical hardware, so it can be costly to implement or scale up
, especially thesquirrel cage type. According to DoE, electric motors consume more than 50 % of all electricalenergy in the USA and more than 85 % of electrical energy used for industrial production [4] We asked students to imagine themselves in an industrial environment where all thingsand people are running in a rush, time is precious, and they don’t have all the informationrequired for the best analysis, nor the best instruments, as in a laboratory setting [5]Motors running at nominal load (load = 100 %) offer their best efficiency and hence consume theleast energy. Underloaded (load < 100 %) motors run at lower efficiency and at lower powerfactor, contributing to the increase of losses and operating costs. To quickly find thoseperforming
Copyright 2004, American Society for Engineering Education6. Haque, M.E. “Interactive animation and visualization in a virtual soil mechanics laboratory” the 31st ASEE/IEEE Frontiers in Education Conference Proceedings, session T1C, Reno, NV, (2001)7. Kocijancic, S. and O’Sullivan, C. “Integrating virtual and true laboratory in science and technology education” the 32nd ASEE/IEEE Frontiers in Education Conference Proceedings, session T2E, Boston, MA, (2002)8. Tatum, C. B. Balancing engineering and management in construction education. Journal of Construction Engineering and Management, 113, 10-17 (1987).9. AbouRizk, S. M., & Sawhney, A. Simulation and gaming in construction engineering education. Paper presented at the
, nondestructive materials evaluation and optical copying. Image processing, including image enhancement, analysis and compression. Student specialization through assignments and project. (3-0) Course Content SelectionComputer applications are characteristically of interest to engineering students, so an imagingcourse has a lot going for it right away. Associated with that, images are inherently visual andnaturally compatible with computer manipulation and storage. They naturally have the potential forinterest, even fun, for students.On the other hand, many engineering students are more interested in hardware and laboratories thanthey are in mathematics (even computer-based math) and computational manipulation
, we adapted the Draw-an-Engineer Test and utilizedan inductive coding scheme gathered from the research literature [13]-[14]. From the literature[14, we utilized an inductive coding consisting of three constructs: attributes, professions, andactivities. When coding for attributes, we considered perceived gender, collaboration, andself-identification. For profession, we coded the type of work depicted or described in thedrawing, e.g. designer, builder, train conductor, etc. Coding for activities involved taggingimages or words related to action, e.g. laboratory work, engineering design process, drawings,etc. The following section describes the implementation of the module and the results fromanalyzing the drawings. III. Implementation and
not theintention of the laboratory exercise to train the students to become lab technicians. Rather, the © American Society for Engineering Education, 2022 2022 ASEE Illinois-Indiana Section Conference Proceedings | Paper ID 35748principal purpose in putting our students in the laboratory setting is to enhance and supplementtheir understanding of the concepts and principles being taught within the classroom.”For engineering curriculum, impact analysis is typically first introduced in a physics orengineering dynamics course. More in-depth analysis and practical applications are typicallycovered in a mechanics of materials course for all engineering majors, and/or a machinecomponent design course for mechanical
Georgia Tech. She also earned a M.S. in materials engineering from Auburn University and a B.S. in mechanical engineering from Mississippi State University. Prior to beginning her current position, Tammy taught science at a local high school, was an instructor in the Department of Chemistry and Biochemistry at Spelman College, and an adjunct instructor in the Department of Mathematics, Computer Science, and Engineering at Georgia Perimeter College.Dr. Comas Lamar Haynes, Georgia Tech Research Institute Comas Lamar Haynes is a Principal Research Engineer / faculty member of the Georgia Tech Research In- stitute and Joint Faculty Appointee at the Oak Ridge National Laboratory. His research includes modeling steady
students gain an understanding of the different fields of engineering thatcan be studied in order to be part of the transportation workforce; that is, how other engineering fields arerelated to transportation, not only Civil Engineering.Hands-On Laboratory Experiments The goal of the hands-on laboratory and experimental sessions is to provide students with a fun,interactive learning environment in which they can discover different aspects of transportation engineering.All the hands-on sessions are designed so that the students are engaged in the session through building orconducting an experiment. A session related to building and testing a bottle rocket is one example of suchactivities. In this session (Build a Bottle Rocket), the
virtual offering.Traditionally, BME seniors took this laboratory course before senior design to gainmanufacturing skills and approval access to the university machine shop. During the ten-weekcourse, they would learn how to operate the drill press, lathe, mill, and laser cutter to machinetheir own digital microscope using manufacturing plans given to them and watching the teachingassistant (TA) perform a demonstration. However, the virtual offering requirement shifted themain deliverables from simply machining a device to developing the manufacturing plans tomachine said device. Although completing both is ideal, there is still great value in learning howto use your resources and learned machining knowledge to develop rational manufacturing
transition from thetraditional physical laboratory to the online virtual laboratory. Before the pandemic, we alreadygradually adopted more and more virtual labs. Students log in to a virtual environment,consisting of one or more virtual machines, to perform hands-on exercises. They do not need togo to an on-campus lab at a fixed time. Students can do the virtual labs at any place and at anytime. Virtualization makes it possible for students to do some labs which are otherwiseunavailable in a traditional environment. In many courses with a lab component, F2F sectionsand DE sections shared the same virtual lab environment already, making the transition fromface-to-face to online easier.As described in papers previously [3]-[4], different virtual lab
. Additional work is ongoing to assess the efficacy of theteaching modalities in individual courses and will be subject of future publications. IntroductionMost engineering and computer science faculty members at our public university prefer teaching in aface-to-face format in the classroom instead of teaching virtually. However, during the COVID-19pandemic, the faculty are asked to choose among five teaching modalities that cope with the pandemic.The teaching modalities offered by the university are ‘Traditional Classroom/Laboratory,’ ‘BlendedHybrid,’ ‘Flexible mode,’ ‘Remote Virtual,’ and ‘Online.’It is important to note that a complete learning management system [1] is widely implemented acrossthe
willing to allow access to their classrooms and laboratories,occasionally even by off-campus professionals.For the first conference the organizers were able to solicit the assistanceof about 60 women to serve as workshop leaders and role models in exchangefor only a box lunch and a wine and cheese reception following the con-ference. Although essentially all the female math/science faculty parti-cipated, this gave us only a small start. Local medical research facilitiessuch as the Neurological Institute and Veterans• Administration Hospital,university affiliated research establishments such as the U.S. Departmentof Agriculture and the Metabolism and Radiation Research laboratories aswell as larger local industry such as Northwestern Bell and
demonstration that the derivative operatoris more than a symbolic mathematical operator and much more than just anotheracademic exercise.We have successfully used winDSK, winDSK6, and the latest version, winDSK8, toprovide demonstrations of any number of concepts during outreach (K-12 events), atfreshman motivational events, and in junior, senior, and even graduate ECE courses.IntroductionFor years, students have struggled with learning the significance of the impulse response.This is especially true given that there is no piece of test and measurement equipment(T&ME) in our teaching laboratories that is capable of producing a true impulse. Manyeducators have written about the benefits of demonstrations to aid student learning,especially for some
integrated into core courses taught in the BME program that cover the criticalengineering concepts with direct application to biomedical problems. These core courses will betaught by BME faculty who have the training to work across the boundaries of traditionalapproaches in order to promote the systems-thinking skills necessary for engineers. Importantly,vertically-integrated engineering design will be included in each year of the undergraduatecurriculum in order to increase hands-on experience, creative thinking, and programcohesiveness. All core BME course offerings will be project- and laboratory-based, with anemphasis on active learning and interdisciplinary perspectives on biomedical technologies.Background Active learning is
BiomedX program provides funding, education, and support to students and faculty interested in commercializing their biomedical inventions. She has ad- vised and educated numerous student and faculty teams and start-ups in developing and commercializing medical technologies. Her current educational work focuses on developing new instructional tools and programs to enhance graduate education in the Department of Biomedical Engineering. Prior to joining Columbia and while pursuing her PhD, Reuther served as a Research Assistant at the McKay Orthopaedic Research Laboratory. Her dissertation researched focused on determining fundamental relationships and mechanisms of tendon and ligament injury and repair, with a
. Her interests include innovative laboratory experiments for undergraduate instruction, engineering design for first-year stu- dents, and encouraging women to study engineering. For the three years prior to teaching at Michigan State University, she taught freshman and sophomore engineering courses at Rowan University. While at Rowan University she was Co-Director of RILED (Rowan Instructional Leadership and Educational De- velopment), the advisor for the student chapter of the Society of Women Engineers (SWE), and given the ASEE Campus Representative Outstanding Achievement Award. Her teaching experience also includes work as a graduate student facilitator and engineering teaching consultant at the University of
; national network of Development of custom on-site or certifications. community colleges. Engagement at all off-site training educational levels. programs.October 23, 2017 - New Facility Groundbreaking (opening Jan 2020) Funded by the UniversityGroundbreaking: of Delaware & private philanthropy Oct. 2017 NIIMBL willOpening: Jan.lease 2020space for headquarters and shared laboratory space Facility will also be home to synergistic research activities at University of Delaware
, built and testedantennas. The first year they designed 432MHz Yagi3-5 antennas with various numbers ofelements. The second year the teams aimed at 144MHz. This spring the students built Quagi6-7antennas having six elements and one team built a Quad antenna, all designed to be resonant at444MHz. Figure 12. EET 456 Class, Spring 05 Figure 13. EET 456 Class, Spring 06The antenna building laboratories were successful in several ways. The students enjoyedbuilding the antennas and looked forward to testing them in late spring. This contributed to goodmorale and favorable attitude towards the other communications subjects. The students gained abetter understanding of concepts such impedance matching,8,9 radiation pattern, gain
, and creating joints.The end of course survey indicated that students viewed the use of simulation analysis asa critical skill necessary for this course, and expressed that an increased emphasis oncreating simulations was necessary to fully comprehend the software capabilities.The Future in Experiential LearningWith laboratory and facility costs continually rising, true hands-on experiences arebecoming more difficult to deliver in engineering laboratory settings. So, creating asimulated experience for students is “the next best thing to being there”. The problem-based simulation activities still have their limitations because of the difficulty inimplementing the activities in a self-paced classroom situation and the time required forstudents
ASEE-NMWSC2013-0025 Converting a Microcontroller Lab From The Freescale S12 to the Atmel ATmega32 Processor Christopher R. Carroll University of Minnesota Duluth ccarroll@d.umn.eduAbstractDuring the summer of 2013, the laboratory supporting the microcontroller course at theUniversity of Minnesota Duluth was completely re-implemented. For the last several years, theprocessor that has been used was the Freescale S12, a popular 16-bit microcontroller with a longancestral history1. The recent popularity of the Atmel AVR series of
, gaming complementsrather than substitutes for more formal pedagogical approaches: integrating standard formalteaching methods and simulation games as a laboratory to test and reinforce the relevance oftheories can be a very effective teaching method. In particular, games have been shown to bemore effective if they are embedded in instructional programs that include debriefing andfeedback.12 Perhaps the most well-known communication game is the “Who are we?” game,designed around the principles of the Johari Window model developed by Dr. Joseph Luft andDr. Harry Ingham. This model identifies sharing and feedback as the keys to building opencommunication. Open communication leads to a climate of trust and access to untappedpossibilities.13In this
students to be able to perform complicated control analysis without highlyadvanced mathematical skills. The approach also eliminates the need for setting up physicalcontrols laboratories that are impractical under the Covid-19 restriction.Technical discussion:Figure 1 is a graphical representation for a single degree of freedom vibrating system. Figure 1: Graphical representation of a single degree of freedom vibrating systemThe equation of a single degree of freedom vibrating system is shown in equation (1). m d2X / dt2 + C dX / dt + KX = F (1)Equations (2) through (9) are the numerical solution of equation (1), where “h” is the timeincrement and the subscripts are the steps in
- Energy, laboratory project, numerical natural gas and oil, nuclear, hydro, and sustainable sourcesintegration, Excel, measurements, lighting, freshman such as solar, wind, geothermal, and micro-hydro). This INTRODUCTION information provided motivation to examine ways to reduce energy consumption in a home, one of which is to use the At Rowan University, all freshman engineering most energy efficient lighting available.students take a two-semester engineering clinic course To deliver relevant scientific principles of the light bulbdesigned to introduce them to many of the topics they will
2 Naval Architecture and Ocean Engineering Department, United States Naval AcademyAbstractWithin engineering education, long-term retention of major concepts is a key objective. Numerousclassroom techniques combine to work towards this goal, including testing, laboratories, anddemonstrations. One highly effective, yet often underutilized, tool for improving long-termunderstanding is hands-on activities that students do at their desks, especially those involvingsimple items with which they are already familiar. Five characteristics are common to aproductive, in-class, reinforcement activity. (1) All students participate, preferably at their own desks. (2) Items involved are commonplace, familiar to the students, and low-cost