A Simple Laboratory Experiment on Coupled Electrical Oscillators Tyler Locke1 , Lucas Faria de Sá Tucker1 , Haridas Kumarakuru1∗ and Don Heiman1∗ 1 Department of Physics, Northeastern University, Boston, MA 02115 ∗ Corresponding authors: h.kumarakuru@northeastern.edu, d.heiman@northeastern.edu AbstractThe resonance properties of coupled LRC electrical oscillators was investigated and their joint behaviourcompared to that of a mechanical mass-spring system. The damped sinusoidal output of each uncoupledcircuit was recorded and curve fitting was performed to obtain values for the
Teaching Using Virtualized IoT DevicesAbstractKinesthetic Learning Activities (KLAs) are immensely valuable in courses relating to Internet ofThings (IoT) development. KLAs enhance understanding of software, hardware, and theirintegration through hands-on experimentation in a physical lab/classroom. However, the shiftfrom in-person to online classrooms, over the past year, has raised concerns about the viability ofKLA based teaching. In this paper, we recount lessons-learned, challenges, and opportunities inmoving from physical to virtual IoT labs. This is based on our experiences of conducting threeonline programs: two workshops on Pseudo-blockchains with Virtual Raspberry Pis and agraduate course in WSN
an upper-level engineering laboratory is to teach the connection between rational andempirical design and technical writing. Technical writing cannot be taught in isolation fromtechnical context 11 . It is important for an upper-level engineering class to emulate engineeringdesign as much as possible. The combination of rational and empirical design and technicalwriting fits into the general approach of problem-based and project-based learning, (PBL andPjBL, respectively). The difference between PBL and PjBL is that in PBL the instructor specifiestasks to be performed in basic steps. In contrast, PjBL specifies a greater task and the studentscreate strategies and approaches 12 . Both PBL and PjBL have shown to be effective in highereducation
—STEM teaching, mobile laboratories, STEM equity, STEM exposureN. K. DeJarnette is with the School of Education (email: ndejarne@bridgeport.edu), R. S. Deeb wasformerly with the School of Engineering (email: rsdeeb@gmail.com) and J. M. Pallis is with the School ofEngineering (email: jpallis@bridgeport.edu), University of Bridgeport, Bridgeport CT.I. IntroductionEquity suggests that all children receive the same privileges and experiences, regardless of theirzip code. Equity in STEM (Science, Technology, Engineering and Math) education is front andcenter in education today [1]. The 21st Century has birthed a technological age like nothing everseen before. Likewise, careers in STEM continue to grow around the globe and today’s globalpopulation is
the will share some key findings that we will take as we enter a newearly adopters of personal learning devices in our teaching phase of the pandemic with students returning to campus andlaboratories [1,2,3,4]. Our students purchase the Analog the lab (at least for now).Discovery Kit (ADK2) from Digilent as first year students anduse it throughout their engineering education. The ADK2, whenconnected to a computer, provides students with the equivalent II. COMPARING LABORATORY OUTCOMES USING PERSONALof a standard lab bench
Room IS 105Worcester Polytechnic InstituteTeaching laboratories is an essential component of chemical engineering education. They are designed to help students think criticallyabout chemical engineering principles and practices by planning and execution of experimental work followed by reflection, analysis, andinterpretation of data. However, operating teaching laboratories with social distancing measures poses significant logistical and safetychallenges, and alternative modes of delivery could be a realistic way forward in adapting engineering curricula to the post COVID-19world. This paper is aimed at identifying common approaches and strategies implemented in transforming hands-on labs into hybrid, virtualor remote operation to achieve
many educators feel that the effectivenessof scenes/sources instructor can switch of remote learning is hampered because ofbetween seamlessly via custom transitions that. There are many barriers to studentallows for a learning experience like that of engagement including, but not limited to,a regular classroom experience. The scenes financial challenges [8], students dealingwere broadcasted via Zoom to teach ECE with stress and trauma [9], lack of support2010, a laboratory-based engineering and structure at both the technology andcourse, and summer pre-college programs course design level [10], and teachingat WPI, and the feedback from students was practices that simply don’t work
of the instructor was shared withthe distance learning students and at the same time, was projected to the classroom monitors forthe in-person students. The virtual room audio was connected to the classroom audio system sothat the distance learning students could hear their in-person peers speak during the class andvice versa. In addition to the classroom audio-visual technology, the real-time chat functionalityof the virtual room was used to interact with the distance learning students in a more efficientway. An experienced graduate teaching assistant (GTA) moderated the chat throughout the classand answered most of the questions from the distance learning students. If any question or issueraised in the chatbox needed the instructor’s
recording system presented here could be used to demonstrate these concepts, for example by adding inductors and RLC circuits and filters. However, a large inductance may be required to observe resonance and underdamping effects due to the slow voltage sampling rate. • Students do not learn to operate commercial electronics lab equipment, such as oscilloscopes and power supplies, as these are not used in this course. Often the next instrumentation course students take is a laboratory or design course that expects students to be familiar with commercial lab equipment usage, so a tutorial may be necessary to teach these skills. • Currently, course lab materials (beyond the Arduino kit) cost
background materialin both engineering and biomedical disciplines, as well as more domain specific knowledgerelated to the end application areas. To reinforce this multidisciplinary knowledge, a series ofteam-based challenge exercises were recently incorporated into a Biomechatronics course at theRochester Institute of Technology (RIT) using the low-cost Robotis Mini Humanoid robot and aproject-based learning approach. Students were required to complete task-based challengesusing both the Robotis virtual platform and the physical humanoid robots. The virtualenvironment allowed students to do the majority of programming outside of the laboratory,thereby minimizing the amount of time required with the actual robots. As part of the challengeexercises
teaching assistants for the Advanced Physics [12] Z. Jones, J. Hinds, S. Woznichak, and A. Calamai. Re-Laboratory section for which this experiment was visiting the room-temperature metastable 2e lifetimeintroduced. We would also like to thank the in ruby for an upper division phosphorescence labora-Northeastern University Department of Physics for tory experiment. Journal of Undergraduate Reports infinancially supporting our experience at the ASEE- Physics, 30(1):100004, 2020.NE 2021 conference. [13] G. C. Brown. Fluorescence lifetimes of ruby. Journal