Paper ID #36071Development of a laboratory module to analyze the effect of 3D printingorientation on material propertiesMr. Samuel Joel Rainey, Geneva College Samuel Rainey is an undergraduate student at Geneva College. He is a senior pursuing a Bachelor’s degree in engineering with a concentration in mechanical engineering, as well as a Bachelor’s degree in physics. He is currently working on a senior design project entailing the design and manufacture of a vehicle for the SAE mini Baja challenge, and hopes to purse a Master’s of Science in Engineering while working in the industry after graduation.Dr. Christopher Charles
Laboratory Alexia Leonard Dr. Andrew Maxson Department of Engineering Education Department of Chemical Engineering The Ohio State University The Ohio State University Columbus, OH 43210 Columbus, OH 43210 Email: Leonard.370@osu.edu Email: Maxson.32@osu.edu1 AbstractExposure to chemical engineering is a critical factor in students’ decision to major in chemicalengineering. However, many underrepresented minority students lack exposure to chemicalengineering outside of formal education. While there are resources regarding labs that could
of a new embedded curriculumtargeted to powerful embedded processors. This includes the design of a brand-new seniorundergraduate course along with a comprehensive tutorial on high-performance embeddedprogramming. We provided students with carefully designed activities that emphasize theoptimal usage of powerful microprocessors for embedded applications. The students becameproficient in techniques to maximize the performance of an embedded application by optimizingthe use of computer resources via techniques such as parallelism and pipelining. The embedded curriculum was deployed in a classroom and a laboratory setting. The learningmaterials (course notes, assignments, laboratory experiments, step-by-step tutorials) are madefreely
American c Society for Engineering Education, 2022 Developing Power Cycles Simulations for an Applied Thermodynamics CourseAbstractAs part of the rigorous curriculum for the Mechanical Engineering Technology (MET) students,laboratory courses supply a critical part of the engineering education through hands-onobservation, measurement, data acquisition, data analysis and interpretation, technical reporting,teamwork, and others. When the access to hands-on laboratory activities was abruptly interrupteddue to COVID-19, there was an immediate need 1) to find practical computer simulations, and/or2) to develop new simulations, both in support of the theory discussed during
Networks Zachary Dickinson, Tyler Seelnacht, and Ramakrishnan Sundaram Department of Electrical and Cyber Engineering Gannon University Erie, PA 16541 E-mail: dickinso014, seelnach001, sundaram001@gannon.eduAbstractThis paper discusses the use of hands-on STEM laboratory and project activities to engageSTEM students in middle and high schools through the assembly and testing of wireless sensornetworks for radio frequency imaging of space. Radio frequency signals can be used to performnon-invasive and device-free target localization of objects or entities in space. Radiotomographic imaging uses wireless sensor networks to form
recognition and/or classification.Figure 1 captures the essential subject matter necessary for the course on applied AI to delivermeasurable course outcomes. The activities conducted during this course fall in the categories ofproblem-based, project-based, and self-directed learning. The laboratory and project activities ofthe course emphasize the integration and testing of physical systems by providing the necessaryinsight into the building blocks displayed in Figure 1. Figure 1: Background preparation Proceedings of the 2022 ASEE North Central Section Conference Copyright © 2022, American Society for Engineering Education 2Section 2 overviews the course setup in
from Research and Practice for Middle Grades through University Education. (Center for Assistive Technology and Environmental Access, 2012).16. Sweet, C. Accessibility in the Laboratory. in Hidden or Invisible Disabilities and Laboratory Accommodations (ed. E. Sweet, W. Strobel Gower and C.E. Heltzer) vol. 1272 69–75 (American Chemical Society, 2018).17. Prema, D. & Dhand, R. Inclusion and accessibility in STEM education: Navigating the duty to accommodate and disability rights. Can. J. Disabil. Stud. 8, 121–141 (2019).18. Miner, D. L., Nieman, R., Swanson, A. B. & Woods, M. Teaching chemistry to students with disabilities: A manual for high schools, colleges, and graduate programs. (American Chemical Society, 2001).19
are placed a coil’s radius apart from each other. Due to ease of assembly andcompact nature of the apparatus, Helmholtz coils are useful laboratory and testing tools.The objectives of the senior design project were to a) create collaborative senior designopportunities between the two institutions due to limited industry partnerships availability duringthe, and b) design a Helmholtz coil to be used with a temperature changing device between itstwo coils. The senior design team, graduate student, and faculty advisors were located at theUToledo. The senior design took on roles of project managers, safety manager, designer, andtester. The online teaching and meeting tools developed during the onset of COVID-19 pandemicwere leveraged to maintain
course isincluded to cover electronic devices and circuits with laboratory experiments, leading to a total offour credit hours of coursework. Typical topics covered in Electronics can be largely grouped intothe following four categories: op-amp applications, diodes and applications, bipolar junctiontransistors (BJTs), field-effect transistors (FETs). Closely related to the electronic platform furtherdiscussed in this paper is op-amp applications. When op-amps are covered in the course, variousop-amp circuits are discussed starting with inverting op-amps and non-inverting op-amps and then,comparators, integrators, differentiators, summing amplifiers, instrumentation amplifiers, and someother op-amp circuits. It is generally expected that students
. McMurrey, A guide to writing as an engineer. John Wiley & Sons, 2009.[20] J. McNeill et al., “Work in Progress: A Taxonomy for Faculty Scaffolding of Project-based Learning.” doi: 10.18260/1-2--33586.[21] Mohammad Abu Rafe Biswas, Benjamin Lee Stilwell, and Edgar Reyes, “Simulated Laboratory-Based Learning In A Thermal Fluid Laboratory Course,” 2021. 13[22] Gerald J. Alred, Charles T. Brusaw, and Walter E. Oliu, Handbook of Technical Writing, 7th ed. Macmillan, 2009.[23] V. Jovanovic, M. McKittrick
the Utility of Tomorrow competition, outperforming fifty-five international teams to bring home one of only five prizes. Additionally, he has developed and taught fourteen different courses, many of which were in the areas of energy, sustainability, thermodynamics, dynamics and heat transfer. He has always made an effort to incorporate experiential learning into the classroom through the use of demonstrations, guest speakers, student projects and site visits. Dr. Kerzmann is a firm believer that all students learn in their own unique way. In an effort to reach all students, he has consistently deployed a host of teaching strategies into his classes, including videos, example problems, quizzes, hands-on laboratories
grimydays of the past. Prospective students tour manufacturing programs and their laboratories, andmention what they want to do after graduation – basically defining manufacturing engineering.But, when they are asked to choose a program, they prefer mechanical engineering or other fieldsover manufacturing. Table 1. ABET Accredited Programs in Manufacturing Engineering4 as of 02/09/2022 Manufacturing Engineering (21) Arizona State University, Bradley University (IL), Bachelor’s of Science Brigham Young University (UT), California Polytechnic State University - San Luis Obispo, California Polytechnic State University – Pomona, Central
curriculum. This project did not tie to any specific course nor bear any college credit. It was a purely extra-curriculum activity.• Teaming up with one of the student engineering clubs, GUBotDev starting the second year improved students’ participation and expanded the resource. The GUBotDev mobile lab (a modified full RV) acted as the onsite testing laboratory for the team during 2021 competition as shown in Figure 6.• It is an excellent experience for the team to enter the competition and meet with other teams from all over the world. It was a fruitful experience for the key project members with one of 7 Proceedings of
-grade FPGAs ADASand Electric Vehicle embedded system requirements are met. Textbook used in the course islisted in Appendix A.The topics covered include • Elements of Embedded Systems Design • Real Time systems Requirements • Field Programmable devices • VHDL based design and design of Logic modules • Matlab to generate HDL code • Schematic design for FPGA • Simple CPU design • Design with embedded processors • Softcore processors NIOS II implementation inside FPGA • Use of Hardcore ARM processor inside SOC-FPGAs • Automotive applications and software standards. • Laboratory exercises with Intel DE1 SOC boards and projectCatalog Course Description:Topics covered include the use of hardware
prepare students for targeted internships inadvanced process control and automation. The inaugural pilot workshop, titled SystemsAutomation Springboard to Internships (SASI), was held during the winter term of 2021. Studentswere sponsored by companies, who paid the workshop fee, and offered the students an internshipduring the summer of 2021.The content of the SASI workshop, spanning the full spectrum of automation, from fieldinstrumentation through enterprise control systems, is delivered through a mix of lectures,laboratory experiences, programming, and discussions with industry experts. The strength of theworkshop lies in the rich depth and variety of materials offered by a mix of eight industrialpractitioners and three academic instructors
, 2016, 2014, 2011 and also 2010 National Aeronautics and Space Administration (NASA) Summer Faculty Fel- low at the NASA Glenn Research Center in Cleveland, Ohio. For over 36 years, he has supported the professional development of over 300 graduate Manufacturing Engineers and over 600 CSU STEM and non-STEM student graduates who are now serving as Plant Managers, Senior Executives, Supervisors, Quality Control Engineers, etc., these graduates are all supporting Manufacturing and allied industries and businesses in the U. S and across the World. He was an Air Force Research Laboratory (AFRL) Summer 2013 Faculty Fellow at the Eglin Air Force Base in Eglin, Florida and a Summer 2018 AFIT/WPAFB Research Faculty. He