Introduction to Engineering courses. At Dunwoody College of Technology, the coursetitled “Introduction to Engineering” is taken by electrical, mechanical, and software engineeringfirst-year students. The team-based project involves designing, building, programming, andcalibrating an electromechanical balance. This project makes use of the skills and interests ofeach represented discipline.In the prior work (“Balancing the Engineering Disciplines!: An Interdisciplinary First-YearDesign Project”), the authors laid out the project in detail and proposed changes to furtherimprove the flow and educational value of the work. Many of these changes were incorporatedfor the fall 2021 course offering. This paper addresses those changes and compares
Paper ID #38341National Science Foundation ATE Grant Funding andMentoring OpportunitiesGreg Kepner (Principal Investigator) Greg Kepner serves as a Co-PI of the MNT-EC (Micro Nano Technology Education Center) and the PI for the ATE Collaborative Outreach and Engagement Project. He previously served as the PI of the NSF-ATE MPEC and Co-PI of OP-TEC (The National Center for Optics and Photonics). In 2019, he retired from Indian Hills Community College after 32 years where he has served as the Department Chair, Advanced Manufacturing Department, Industrial Technology Coordinator, and Robotics/Automation instructor. Greg
). Following his graduation in 2016, he joined a leading real estate corporation in Nepal as a site engineer working on a multi-million project. He later joined a research firm based in London where he worked as an Engineering Graduate Researcher. Piyush is currently a Graduate Research Assistant and Teaching Assistant at the Moss School of Construction, Sustainability, and Infrastructure at FIU where he focuses on multidisciplinary research that harmonizes sustainability in construction. His other research interests include Sustainable Construction, Robotics, and AI-based Construction, Engineering Education, Green Buildings, Sustainable Infrastructure, Resilient and Sustainable Post-Disaster Reconstruction, and Circular
Thermal Scan that wasdeveloped as part of a Senior Capstone Design Projects course at Kennesaw State University(KSU).The design of the Automated Door System with Thermal Scan was tested to verify thefunctionality of the design, and most of the objectives for the design project were met. However,this is an ongoing project and recommendations for further research and development work willbe documented. Some specific recommendations for future work include more rigorous testing indifferent outdoor environments, designing a housing unit to house the components to create amore controlled environment for the system, and testing the performance at different distanceswith the thermal scanner.Background The project was undertaken to fulfill the
Paper ID #38013Innovating Through a Pandemic: Zooming in on theSustainable Lessons Learned in Engineering EducationDavid John Orser (Distinguished Teaching Professor) David Orser a Distinguished University Teaching Professor in the Department of Electrical and Computer Engineering at the University of Minnesota. He is a teacher, lab coordinator, and mentor with over a decade of industry experience. David teaches and leads the development of undergraduate curricula with a focus on project-based learning, experiential learning, and laboratory courses. His leadership brings together faculty, TAs, staff, and students
for CWRU's American Society of Civil Engineers student chapter. Before her work in teaching, Katie P. Wheaton worked as a structural engineer for Thornton-Tomasetti-Cutts in Washington, D.C. and Osborn Engineering in Cleveland, Ohio. Her work in industry focused on steel and concrete building design, as well as project management for multi-disciplinary design teams. Buildings she has worked on include stadiums, dormitories, libraries, athletic centers, museums, and offices. She is a registered Professional Civil Engineer in the State of Ohio and a registered Structural Engineer in the State of Illinois. © American Society for Engineering Education, 2022
Paper ID #37503Engagement in Practice: A model for community partnershipin an infrastructure capstone courseGeorge A Hunt Dr. George Hunt is an environmental and water resources engineer and Assistant Professor of Practice at the University of Nebraska.Matthew Williamson (Assistant Professor of Practice) Dr. Matt Williamson is an Assistant Professor of Practice in the Civil & Environmental Engineering Department at the University of Nebraska-Lincoln (UNL). Dr. Williamson's teaching interests include team-based learning, student inclusion and retention, and engaged project-based learning. Prior to joining the
also K-12 STEM education withdiverse forms to impact more perspective students [9, 10]. This paper introduces the lessonslearned from a three-year collaboration and partnership between LeTourneau University (LETU)and Qeexo, Inc. LETU is a small private institution in Texas, and Qeexo is a startup located atSilicon Valley in California. The partnership between LETU and Qeexo was initiated during the1st year of a Silicon Valley mission trip with LETU students led by a faculty member. Thesuccessful partnership was established with a two-year collaboration to end with mutual benefitsfor the participating groups. Students experienced leading edge machine learning (ML) technologyin their class term project and an embedded machine learning contest
) © American Society for Engineering Education, 2022 Powered by www.slayte.com Capstone Courses in a New ABET Accredited Electrical Engineering ProgramAbstractThe purpose of capstone design project courses is to provide graduating senior students theopportunity to demonstrate understanding of the concepts they have learned during their studies.As with many computer science and engineering programs, students of the electrical engineeringprogram at Utah Valley University (UVU) conclude their degree programs with a two-semestercapstone design experience. The intent is for students to utilize competencies developed in thefirst three years of the curriculum in the solution of a complex design problem.This paper
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
they taught to prioritize? Just as importantly, when they are given thesecritical opportunities, do they have the skills to think critically about what the “public good”actually means? Have they been taught to listen to members of the public and value the differentforms of expertise that diverse community members offer? While engineering, as a discipline,prioritizes public welfare, engineering curriculum often provides students with a technical skillset while neglecting to develop their aptitude in humanistic inquiry and critical listening.One pedagogical approach that encourages students to think through the complexities of serviceto the public good lies in community engagement projects. In such projects, students arepartnered with local or
www.slayte.com Augmenting undergraduate Engineering Technology Education through Applied ResearchIntroductionPurdue University Northwest (PNW), through a large endowment from an alumnus, hasrecently established the David Roberts Center for Innovation and Design (CID) under theCollege of Technology. Through this center, Engineering Technology (ET) students, under thesupervision of faculty, have been conducting industry-sponsored applied research at PNW. Thesponsored projects involve most areas within ET and have fostered innovation andentrepreneurship for ET students. The CID facility, in conjunction with the PNW'sCommercialization and Manufacturing Excellence Center (CMEC) provides research facility andspace for designing innovative products and
Paper ID #36648Improving Capstone Outcomes: Changes to Deliverables andAccommodating Remote LearningAlexander James Mackay Alexander Mackay received a B.Eng degree in electrical engineering from Memorial University of Newfoundland and Labrador in 2017. He is currently pursuing a Ph.D. degree in electrical engineering at the University of Toronto, where he received a M.A.Sc. degree in 2020. His research interests include engineering design projects and their implementation, phased array feed structures, leaky-wave antennas and radar imaging systems.Hamid S Timorabadi (Assistant Professor, Teaching Stream) Hamid
that explicitly affect the URM students at CSUF is therelatively higher repetition in lower-division math courses. In general, 2-10% of URM studentrepeats lower-division math courses (Math-150A and Math-150B) compared to the non-URMstudents (Figure 2). Several factors affect the achievement gap between URM and non-URMstudents, including their prior academic preparation, sociocultural background, and economicpull factors. The National Science Foundation (NSF)-funded “Advancing Student Success byUtilizing Relevant Social-Cultural and Academic Experiences for Undergraduate Engineering,Computer Science Students (ASSURE-US).” This is a five-year project at CSUF that seeks toaddress the challenges faced by URM students. The project aims to achieve
) © American Society for Engineering Education, 2022 Powered by www.slayte.com High-Impact Practices in LEAP: an NSF S-STEM Scholarship ProgramAbstractUtah Valley University (UVU) was awarded an NSF Scholarships in STEM (S-STEM) grant in2014 to strengthen outcomes for students in computer science, software engineering, computerengineering, and electrical engineering through Leadership, Engagement, Academic Mentoring,and Preparation (LEAP). The LEAP project was completed in September 2021. This paperpresents the impact of the program on the institution and its computing and engineeringprograms. Also, it presents the effect of the high-impact practices in this program in retentionand completion of computer
STEM related courses in which students require access to physical devices tocomplete their work. We describe the initial steps of an NSF funded project focused on creatinglearning environments and materials designed to support engaged remote student learning. Theapproach utilizes IoT learning kits that are lent to students to provide hands-on learningexperiences and promote remote engaged learning at students’ own chosen environment.The IoT involves infrastructure in which a wide variety of physical devices interact with oneanother and share information. When designing, working with or combining these devices,engineering students must consider, among other things, sensors and signals, sensor and systemintegration, input and output interfaces
www.slayte.com Embedded Systems using the Raspberry Pi PicoAbstractIn engineering and engineering technology programs, students learn about embedded systems in avariety of upper and lower-division courses. Each of these courses includes a lab component wherestudents design and implement hands-on projects which reinforce lecture materials. This paper willdemonstrate that the Raspberry Pi Pico embedded board can be used as a basis for many laboratoryprojects within a variety of embedded courses. Some courses include Introduction to Programming,Microprocessors, Embedded Systems, Object-Oriented Programming, Measurements andInstrumentation, Wireless Communications, and Control Systems. The Raspberry Pi Pico is a newinexpensive board built
Paper ID #37009Jeopardy in Structural AnalysisSeyed Mohammad Seyed Ardakani Dr. Ardakani is an assistant professor in the Civil and Environmental Engineering Department and the Coordinator of Statics for the T.J. Smull College of Engineering at Ohio Northern University. He has previously served as Project Engineer at Englekirk Structural Engineers and Lecturer at South Dakota State University. He obtained his Ph.D. in Civil Engineering from the University of Nevada, Reno. His research interests include seismic performance and design of reinforced concrete structures, computational modeling of structures, and engineering
, Director of Women’s Engineering Programs, and CENG Interim Associate Dean. Although she has taught over 25 different courses she current teaches Financial decision making, First year engineering, Senior project, and Change management. Her research is in Engineering Education where she has received $9.8 million of funding from NSF as either PI or Co-PI. She researches equitable classroom practices, integrated learning, and institutional change. She spent the 2019-2020 academic year at Cal State LA where she taught and collaborated on research related to equity and social justice. With her colleagues at Cal State LA she recently received an NSF grant called Eco-STEM which aims to transform STEM education using an asset-based
, including using accessible terms to describedivergent thinking, asking students to describe one example project they remembered well, andfocusing questions within one step of the project selected by the student as most relevant to theirexploration of alternatives. This iterative development of the protocol was successful in elicitingdivergent thinking experiences across their work.Introduction and BackgroundEngineers are expected to solve problems in innovative and novel ways as articulated by variousengineering education organizations [1], [2], which can be achieved by creatively approachingproblems. Creative thought includes both convergent and divergent thinking [3]. Engineeringstudents traditionally are taught problem-solving skills and
Paper ID #37003A Foundational Design Experience in ConservationTechnology: A Multi-Disciplinary Approach to meetingSustainable Development GoalsAndrew Schulz Andrew Schulz is a PhD Candidate in the Department of Mechanical Engineering within the College of Engineering at Georgia Institute of Technology. Schulz earned a B.S. in mechanical engineering and mathematics from Oklahoma State University. He is passionate about interdisciplinary undergraduate projects focused on sustainability initiatives and working to advance mental health resources for undergraduate and graduate students in engineering. Connect with me
facilitate success. The project [1] incorporates a multi-facetedstrategic approach designed to enhance recruitment, retention and advancement opportunities forwomen faculty from diverse ethnic, social, and cultural backgrounds in science, technology,engineering, and mathematics (STEM) disciplines which include social and behavioral science(SBS). The program, called the AdvanceUniX project, combines research with programming andpolicy/practice enhancements to drive long-term changes that will transform University X’sculture, promote innovation, and expand the representation of women on our faculty and amongour campus leadership [2].As part of the overarching AdvanceUniX project, the Connect Grants are designed to broadenopportunities for women
research investigates how individuals in an interdisciplinary team approach mental andphysical models to address a common goal. Deep modeling is understanding how a devicefunctions, the constraints of a project, and the dynamics of effective team collaboration. Incontrast, surface modeling is a less experienced and less effective approach to a design projectwhere designers tend to propose superficial ideas or use ineffective means to communicate how asystem works.Background & MotivationIn December 2019, COVID-19 became a threat in the United States and began to change howlife would be lived. Being able to verify infection status is important for slowing the spread ofthe virus in, and between, communities [7]. COVID-19 testing protocols were
the Ira A. Fulton Schools of Engineering at Arizona State University. He teaches context-centered electrical engineering and embedded systems design courses, and studies the use of context and storytelling in both K-12 and undergraduate engineering design education. Jordan is PI on several NSF- funded projects related to design, including an National Science Foundation (NSF) Early CAREER Award entitled “CAREER: Engineering Design Across Navajo Culture, Community, and Society” and “Might Young Makers be the Engineers of the Future?,” and is a Co-PI on the NSF Revolutionizing Engineering Departments grant “Additive Innovation: An Educational Ecosystem of Making and Risk Taking.” He was named one of ASEE PRISM’s “20
Paper ID #36430The Capstone Course – A New ApproachFernando Romero Galvao Prof. Romero has been working globally as a Construction Project and Program Director. The knowledge acquired over his career of more than 30 years, opened doors for him to have an international career in the area of project management working in several countries, including Japan, China, South Korea, Austria, Germany, Greece, Cyprus, Suriname, Venezuela, Peru, and Brazil. While his professional career permitted him to manage projects covering the full scope of construction and with a value of more than $18.5 billion, he also possesses wide
ongoing work related to integrating socialjustice content into technical courses in mechanical engineering. Understanding of social justiceissues and the ability to engage in sociotechnical thinking are vital aspects of engineers' skill setsin the 21st century, but many engineering programs present content in ways that obscure orminimize these critical links. It is well-understood that student motivation is critical forengagement and learning to take place in the classroom. In our case, achieving participation andengagement in discussions and projects related to social justice requires motivated action on thepart of both students and faculty. Without understanding the specific elements that support orinhibit student motivation to engage with
methodological expertise to support a variety of CRESP projects. Dr. Headley is devoted to designing effective research studies with the potential to generate well-justified answers to complex questions about how students learn given variations in their health, homes, classrooms, and schools. © American Society for Engineering Education, 2022 Powered by www.slayte.com Redesign of a Machine Design Course Sequence to Align with Current Industry and Pedagogical PracticesIntroductionAs a core course in any accredited mechanical engineering undergraduate program, “MachineDesign” is frequently relied upon to meet an oversized load of learning objectives
advising one to two teams in their area of expertise, to three closely coordinatedinstructors advising only the subset of the teams aligned with their expertise in the form of threedifferent sections.The single instructor model was not suitable to accommodate the student growth and to providethe diversity of projects needed to satisfy student interests. In order to manage the high numberof student teams, an increasing delegation of student advising to support staff took place,combined with a streamlining of the project theme to converge at multiple instances of a singleproject. Challenges of this system included a progressive weakening from the course learningoutcomes, and a lack of project choice for the students. Subsequent changes aimed to
, and manufacturing. He also serves as the faculty advisor for the LTU Baja SAE team. © American Society for Engineering Education, 2022 Powered by www.slayte.com Assessing ABET Student Outcome 7 (New Knowledge) with Measurement SystemsAbstractTeam-based projects in a new Measurement Systems course are presented with assessment forABET Student Outcome 7. The first project is an exploration of strain gages and the secondproject is an exploration of data acquisition, encoders, and accelerometers. ABET StudentOutcome 7 is split into two sub-outcomes. Both projects address the first sub-outcome andproject one (strain gages) also addresses
and prepare for success in their engineering majors and future careers. Hensel holds a doctorate in Curriculum and Instruction, focusing on STEM teaching in higher education, and B.S. and M.A. degrees in Mathematics. Prior to joining academia, she worked with engineering teams and in project management and administration as a Mathematician and Computer Systems Analyst for the U. S. Department of Energy. She has over 30 years of experience teaching mathematics, statistics, computer science, and fundamental engineering courses as well as serving in several administrative roles within higher education. Throughout her career, Hensel has created a childcare facility at a federal research lab, coached middle school