competitions than our legacy systems. This new platform is named “BigFlying Lilac” (BFL). Detailed in this paper is the systems engineering approach taken to initi-ate the development of our UAS, detailed system design information of each individual systemon our UAS, and the methods taken to minimize potential risks to ensure overall safety. Beingthe only community college at competition, we look forward to representing our college, andto competing with many of the big-name schools from around the country.Table of Contents1 Systems Engineering Approach 1.1 Mission Requirement Analysis 1.2 Design Rationale2 System Design 2.1 Aircraft 2.2 Autopilot 2.3 Obstacle Avoidance 2.4 Imaging System 2.5 Object Detection
’ research involvement in Engineering. She is also interested in participating in collaborative efforts promoting interdisciplinary research. Lastly, she is currently the PI and Director of the Research-Oriented Learning Experience (ROLE) in Engineer- ing, a National Science Foundation-funded project, and the coordinator of a Latinx Femtoring/Mentoring program at NMSU.Nicole Delgado, New Mexico State University I am a first-year Ph.D. student at New Mexico State University in the department of Curriculum and Instruction. I currently work on a sponsored project that supports Latinx undergraduate sophomore, junior, and senior-level students in developing research, technical, interpersonal, academic, and professional
nothing is known about the distribution of “hot spot” siteswhere battery litter rates are high. Developing this information has become the focus ofenvironmental educational projects. Details are presented on a program that has been developedto conduct feral battery surveys as components of K-12 grade educational projects on theenvironmental implications of batteries, and to partner K-12 student teams with universityresearch. This program offers an opportunity for hands-on education about issues such as heavymetal toxicity, environmental economics, non-point source pollution and recycling. Because thisrequires off-school activity at busy commercial locations where students collect and characterizewhat could be thought of as “hazardous” samples
impactful if done successfully. In thispaper, we describe a cross-disciplinary project where 3D printing and specifically, theconceptualization and prototyping of a temperature-controlled enclosure for a 3D printer, serve asan enabling platform to catalyze learning of the essentials of team-based, interdisciplinaryengineering research and development. The goals of the project are: (i) to investigate the influenceof a controlled temperature environment on the print quality of 3D printed parts, and to optimizethe print quality accordingly; (ii) to allow beginning engineering students with little priorengineering training and 3D printing knowledge to complete a product development cycle ofproblem definition, literature research, design concept
is Purdue University’s Robert A. Hoffer Distinguished Professor of Electrical Engi- neering Technology. He served as the Department Head of the Electrical and Computer Engineering Technology Department at Purdue University 2001-2010 and its Assistant Department Head in the 1990s. He has held leadership roles that include Tau Alpha Pi (President); ASEE ETLI; ASEE ETD; IEEE Press Editorial Board (Editor-in-Chief); FIE Steering Committee (Chair), ASEE ETC ET National Forum (co- founder and chair). He has been recognized with national, regional, university, college, and department awards for outstand- ing teaching and professional service, including: Fellow of ASEE, ASEE’s Fredrick J. Berger Award and James H
, their work gives them practical expertise with cutting-edge technologies including user interface design, CAD modeling, and spatial computing.This strategy highlights the mutually beneficial relationship between the university's technologyendeavors and its students' academic development. In addition to helping to develop the digitaltwin campus, students can put their theoretical knowledge into practice by participating in real-world applications. Additionally, interdisciplinary groups of students from disciplines includingeducation, computer science, and architecture have collaborated to create interactive learningmodules that may be included into a variety of courses. Through gamified tasks and simulations,these modules provide peers the
. 2. Facilitate the development of a supportive environment where graduate students are comfortable sharing experiences and insights from their personal and cultural backgrounds, with the goal of broadening individual’s understanding about the choices, opportunities, and challenges that women have in various countries and cultures, as well as differences across academic disciplines and professional settings. 3. Encourage graduate students to reflect on their personal goals, values and choices and develop individual action plans to achieve their own understanding of “success.” 4. Develop formative and summative assessment tools to examine (1) changes in participants’ attitudes, beliefs, and actions related to
Session 2633 Power Electronic Converter for Double Duty in Design and Analysis Courses Herbert L. Hess Department of Electrical and Computer Engineering University of Idaho, Moscow, IdahoAbstract A power electronics project offers a productive and inspiring environment for a capstonedesign project. Students design and build five different power electronic converters. Theseconverters must perform as specified, have readily identifiable topology and components, and bereliable and easy to use. Design process and the development
profile of the engineeringgraduate as demanded by industry and as supplied from academic appears to be getting greaterand greater. “ 2The lack of institutional mechanisms to identify and disassemble obsolete curriculum is a barrierto substantial engineering curriculum reform. A first step in this process is developing anassessment tool to identify curriculum material that is no longer relevant. All engineeringprograms that are accredited by Accreditation Board for Engineering and Technology (ABET)must have a continuing assessment process3. The assessment process must demonstrate that thedefined outcomes of the program are being measured. The most commonly adopted assessmenttools to satisfy these requirements are employer and alumni surveys. These
-wavelength, five-axis laser machining centerfrom Oxford Lasers in Oxford, England has provided those Engineering Technology students theopportunity to learn and practice high-tech skills related to laser machining, part marking, datamatrices, and computer-aided design and manufacturing. Additionally, the data from this multi-faceted machine can be used to develop soft skills that are transferable across industrial fields,such as those practiced in the six sigma quality methodology. The results presented in this papershow some of the capabilities of this machine, as well as two DOEs (design of experiments).The DOEs illustrate the relationship between data matrix quality (2-D barcode) and process inputparameters, namely pen style, power, hatch, and
how holesare made on drill presses, and 91.14% reported new understanding of how taps cut screw threadsinto holes. Overall, 88.46% reported that they were exposed to new skills by the project, and79.49% agreed the project was interesting to them. This project can be effectively and seamlesslyinserted into high school STEAEM classes and used to introduce students to the essential andbeneficial hands-on fabrication elements of shop class.Next steps to develop the pencil-top fidget learning activity into an open-ended andentrepreneurial engineering design and manufacturing module are also discussed.IntroductionShop classes where students use tools to fashion useful and functional objects from metal, wood,plastic, and other materials have
learn first-hand without the anxiety feeling of asking a question inthe general class setting. Basic props were built over summer 2023. These were used in demos aspart of measuring initial reactions and modifying them as needed. A baseline was established usingsome of these demos. These props and demos showed a positive trend helping to encourage andmotivate students. This paper will go over the process of developing these props for both class andlab demos that utilizes previously developed kits. A baseline material concept inventory is alsointroduced. IntroductionClassroom demonstrations are a common tool used to convey concepts in challenging subjects. Theyare used to help reinforce and stimulate
ground effect 3D printed structure, showed 37%increase in the downforce and 26% reduction in the drag force. The capstone was done over 1-semester and was assessed based on progress reports submitted on bi-weekly basis, presentationby the end of the project, final report, and team work participation. Using these assessment tools,many of the ABET outcomes were met as will be shown in the paper.IntroductionAerodynamics and flow around car profile are significantly important for F1 design teams. Thefirst designs in the 1950’s were relatively sleek, despite having to compensate for the enormousengines mounted in front of the driver. Down force was a little known concept at that time, so theteams tried to rely on eliminating drag to achieve higher
Journal of Engineering Education, vol. 36, no. 2, pp. 137-149, May 20113. Yao, J. and Limberis, L., “A project-driven approach to teaching controls in a general engineering program,” Proceedings of the 2008 ASEE Annual Conference & Exposition, 20084. Ahmed, B. and Alsaleh, K., “Robotics: its effectiveness as a tool to teach engineering design and computer programming,” Proceedings of the 2011 IEEE Global Engineering Education Conference (EDUCON), pp. 1018-1021, 20115. Dym, C. L., et al., “Engineering design thinking, teaching, and learning,” Journal of Engineering Education, pp. 103-120, Jan. 20056. Denayer, I., Thaels, K., Vander Sloten, J., and Gobin, R., “Teaching a structured approach to design process for undergraduate
-12 institutions in the Philadelphia, PA area. The robot design activities are highlyinterdisciplinary and include topics such as engineering design, mechanical engineering,electrical engineering, computer science, sensors, systems engineering, projectmanagement, teamwork, and creative problem solving. Undergraduate engineeringcourses which incorporate the robot design and competition activity include a freshmanengineering and graphics design course (EDG 100), an introductory digital design course(CSE 271/CSE 275), and a special topics robotics course. Each course has educationalobjectives which are satisfied by the competition event. The EDG 100 course generallyfocuses on the design and project management aspects of the contest design, where
has the potential to bring jobs back to the U.S. and add to thenation’s global competitiveness. AM is the process of joining materials to make objects from 3Ddata in a layer upon layer fashion.The objectives are to develop, assess, revise, and disseminate an upper division course andlaboratory, “Additive Manufacturing,” and to advance undergraduate and K-12 student researchand creative inquiry activities as well as faculty expertise at three diverse participatinguniversities: Texas Tech, California State Northridge, and Kansas State. Thisresearch/pedagogical team contains a mechanical engineering professor at each university todevelop and teach the course, as well as a sociologist trained in K-12 outreach, courseassessment, and human subjects
findings from thesestudies have equipped educators with reliable efficacy assessment tools4, 18, 19 and cleardescriptions of the predictive power in the link between positive self-efficacy beliefs andincreased persistence, achievement, and interest. Still missing from the literature, however, areuseful descriptions of the heuristics with which students form specific efficacy beliefs. To date,there are few resources available to educators indicating how they might help students improvetheir confidence in engineering success. The development of successful intervention strategiesrelies on understanding what can be done to promote positive self-efficacy beliefs amongstudents. The first step towards addressing this issue involves explaining how
-varying nature of dynamic systems. Some teaching strategies to overcome thisinclude computer simulations and the use of videos, but only a few researchers have utilizedmotion analysis systems or other instrumentation in their dynamics courses.One of the goals of our recent Keck Foundation grant is to incorporate our motion analysissystem into courses in engineering and kinesiology. To date, we have utilized three differentassignment versions in our dynamics course: (a) allowing students to select their own artefact foranalysis, (b) supplying six specific artefacts for analysis, and (c) interfacing with a Kinesiologyclass on motor learning to provide “expert” engineering advice on performance measures ofnovice jugglers versus advanced jugglers.We
ideal teaching tool for thefield of Mechatronics, which encompasses mechanism design and analysis, soft computing,sensing, and electromechanical systems [3].Controlling and programming the movements of a robot’s mobile elements is critical,particularly when the application calls for constructive simplicity and ease of implementation[4]. Each input’s status is read at the beginning of the program [5]. The current value of eachinput is read and stored during the operating cycle, a scan, of the PLC. It collects data from inputmechanisms or sensors that are connected and uses that information to trigger an output fromparameters that are pre-programmed [1], [6]. There needs to be a proper alignment of all thecomponent parts in order to achieve
Engineering Department at Clemson University. He holds a B.S. in Mechanical Engineering from Rose-Hulman Institute of Technology and an M.S. in Mechanical Engineering from Iowa State University. He has worked at Clemson University since 1998 working in IT and teaching part time until 2008 when he switched to teaching full time. He developed and taught the one of the current graphics courses taught in General Engineering as well as teaching the courses in the first year engineering curriculum.Dr. Elizabeth Anne Stephan, Clemson University Dr. Elizabeth Stephan is the Director of Academics for the General Engineering Program at Clemson University. She holds a B.S. and a Ph.D. in Chemical Engineering from the University of
impression of engineering, it is well recognized that thepublic generally lack understanding of what engineers actually do 1. For example, Cunningham etal. developed the “What is an Engineer?” assessment and found that elementary school studentshad many misconceptions including largely associating engineers with things (e.g., cars) ratherthan the work engineers actually do 2. They also found these students had many misconceptionsof what technology is. Hammack et al. found that a week-long engineering summer camp helpedshift middle school students’ perceptions of engineering work from building things towards de-signing things, however many misconceptions still remained 3.Compeau found that high school students in Canada who were on track to apply for
Ozdagli, Florida Gulf Coast University Dr. Ali Irmak Ozdagli is an Assistant Professor of Civil Engineering at Florida Gulf Coast University. He obtained his Bachelor of Science degree from Bogazici University, Turkey in 2007, followed by a Master of Science degree from the University of Notre Dame in 2009. Dr. Ozdagli furthered his academic pursuits with a Ph.D. in Civil Engineering from Purdue University in 2015, and later, a Ph.D. in Computer Science from Vanderbilt University in 2022. With dual Ph.Ds, Dr. Ozdagli brings a unique combination of expertise in Civil Engineering and Computer Science to his role at FGCU. Committed to advancing engineering education and research, his teaching philosophy emphasizes active
Paper ID #42491Applied Ethics via Encouraging Intuitive Reflection and Deliberate DiscourseLucas J. Wiese, Purdue University Lucas Wiese is a PhD student in Computer and Information Technology at Purdue University. He studies AI ethics education and workforce development and works in the Research on Computing in Engineering and Technology Education lab (ROCkETEd) and the Governance and Responsible AI Lab (GRAIL).Dr. Alejandra J. Magana, Purdue University Alejandra J. Magana, Ph.D., is the W.C. Furnas Professor in Enterprise Excellence in the Department of Computer and Information Technology and Professor of Engineering
practiced in other projects throughout the semester.IntroductionThere are many challenges in STEM education, including stimulating student interest, retainingstudents of diverse abilities and backgrounds, and preparing students to address the realities ofthe post-academic world and work-space. Many novel approaches have been developed toaddress these challenges, including problem- and project-based learning [1], entrepreneurship[2], and flipped classrooms [3].First-year engineering students face many unique challenges, including a heavy academic load ofprimarily technical courses. Engineering student success has been shown to be helped byincreasing students’ peer-to-peer instruction [4], and increased efficacy [5] and increasingstudents’ personal
Michigan State. McDonough’s areas of interest include educational theory, student development and engineering education.Daina Briedis, Michigan State University DAINA BRIEDIS is a faculty member in the Department of Chemical Engineering and Materials Science at Michigan State University. Dr. Briedis has been involved in several areas of education research includ- ing student retention, curriculum redesign, and the use of technology in the classroom. She is a co-PI on two NSF grants in the areas of integration of computation in engineering curricula and in developing comprehensive strategies to retain early engineering students. She is active nationally and internationally in engineering accreditation and is a Fellow of
an urgent need for innovative “out-of-the-box” thinkers andapproaches. Students are not being encouraged to think out-of-the-box and are losing some basicskills for defining, understanding and solving problems. Many have a difficult time to thinklogically and critically towards obtaining desired solutions. Thinking is a skill that can bedeveloped, and the earlier the better. In order to get students who can solve problems, we mustaddress the need for development and implementation of courses in innovation and inventivenessin different disciplines, especially engineering and technology.The goal of the “Introduction to Inventive Problem Solving in Engineering” course reported inthis paper is to enhance inventive thinking abilities of
Paper ID #46443Ungrading and Student Motivation: Assessing the Impact on Student Productivityand Allowing Room for Point TotalsDr. Luke Landherr, Northeastern University Dr. Luke Landherr is a COE distinguished teaching professor in the Department of Chemical Engineering at Northeastern University, conducting research in using comics as novel teaching tools, alternative assessment through ungrading, and engineering education. ©American Society for Engineering Education, 2025Ungrading and Student Motivation: Assessing the Impact on Student Productivity andAllowing Room for Point
Paper ID #33133Critical Perspectives on Teaching Design in First-year EngineeringDr. Desen Sevi Ozkan, Tufts University Desen is a postdoctoral researcher in the Tufts Center for Engineering Education Outreach and the Insti- tute for Research on Learning and Instruction. She holds a Ph.D. in engineering education from Virginia Tech and a B.S. in Chemical Engineering from Tufts University. Her research interests are focused on in- terdisciplinary curriculum development in engineering education and the political, economic, and societal dimensions of curricular change.Dr. Avneet Hira, Boston College Dr. Avneet Hira is an
. Page 26.1027.1 c American Society for Engineering Education, 2015 Introducing Soil Property Evaluation in Geotechnical Engineering – Some Food for ThoughtAbstractA first course in geotechnical engineering usually includes a laboratory component wherestudents touch, examine, and test different soils. The astute instructor provides samples andsimple demonstrations to help illustrate new and important concepts related to soil behavior. Inaddition, instructors encourage students to develop a sense of proportion and perspective whenconsidering geologic materials. How large are gravel, sand, silt, and clay particles? What is theconsistency of soft clay or loose sand? Developing
are the first-year engineering courses which are offered as a two-semester sequence with an optional sequence for honors designated students. The first coursefocuses on problem solving through computational tools, specifically Excel, MATLAB, andC/C++ programming. This course ends with a software design project where students work ingroups to create a game of their choosing in C++ [25], [26]. Students engage with the designprocess and consider the audience of their game in this project, but significant instruction onstakeholders and value creation is not included.The second semester course targets design and SolidWorks via two options for an overarchingdesign project. The first is an autonomous robot design/build project while the second is