. Also, prerequisitesknowledge test is very helpful to assess their concepts and to conduct any extra helpsessions.Conventional teaching methods (lectures, classwork and team-home work, mini- andterm-ending projects) are followed for this course. The final take-home project enhancesthe students’ understanding of the material covered in the entire course. Also itdemonstrates the type of study and research required for realistic design.Besides a review of the mechanics concepts, perhaps the only two new topics that areusually covered in depth in a typical Machine Design course are: Fatigue Design and(Static and Fatigue) Failure Theories as applied to the design of components (shafts,keys, couplings, fasteners, bearings, springs and gears
precision agriculture. However, there has not been a proportionate increase inthe number of students pursuing graduate or undergraduate level research in the area ofunmanned aerial systems.The Department of Aerospace Engineering at Cal Poly Pomona is currently engaged in severalUAV research projects. Current research focus is on increasing the UAS autonomy. The ongoingresearch projects include development and validation of flight dynamics models of UAVs,4 modeling and simulation,5 development of obstacle and collision
Paper ID #19554Developing Additive Manufacturing Laboratory to Support Instruction andResearch in Engineering TechnologyDr. Mert Bal, Miami University Mert Bal received his PhD degree in Mechanical Engineering from the Eastern Mediterranean Univer- sity, North Cyprus in 2008. He was a Post-Doctoral Fellow in the University of Western Ontario, and a Visiting Researcher at the National Research Council Canada in London, Ontario, Canada between 2008 and 2010. He was involved in various research projects in the areas of collaborative intelligence, localiza- tion and collaborative information processing in wireless sensor
InstitutionI. Project BackgroundThis paper discusses the creation and first offerings of a multidisciplinary senior design projectcourse sequence at a regional Hispanic-Serving Institution (HSI). The courses, MultidisciplinaryEngineering Design I and II (GEEN 4301 and 4302), were created as part of supporting activitiesfor an NSF-STEM grant entitled: “Javelina Engineers STEM Scholarships (JESS): Building thePathway for Baccalaureate to Masters Degrees,” or the JESS Program.The over-arching JESS Program goal was to identify academically talented undergraduatestudents across all disciplines offered by the Frank H. Dotterweich College of Engineering(COE) at Texas A&M University-Kingsville (TAMUK) and retain these students throughcompletion of the
. He has since moved on from itek Energy and is now working as a project manager at Western Solar Inc, a solar installation company in Bellingham, WA. His work involves system design, operations and maintenance support, customer and technical support, product research, and community outreach efforts. He is a NABCEP Certified Technical Sales Professional and enjoys working on solar education projects in his community.Daniel Saunders, Western Washington UniversityMr. Troy Thornton, Western Washington University c American Society for Engineering Education, 2019 Photovoltaic System Performance Under Partial Shading: An Undergraduate Research ExperienceAbstract:This paper
EECS Department. His current research activities include nanomagnetics/spintronics, graphene electron- ics, nanophotonics, and nano-electromechanical systems. c American Society for Engineering Education, 2020 Career Development Impacts of a Research Program on Graduate Student and Postdoc MentorsAbstract—This evidence-based practice paper explores how graduate students and postdocsbenefit from serving as mentors to undergraduate research interns. Utilizing three years ofqualitative data from 38 mentors, our findings indicate that mentors feel better prepared forfuture faculty careers as they gain skills in project management, supervision, andcommunication. This paper
professional practice.Dr. Robin Fowler, University of Michigan Robin Fowler is a lecturer in the Program in Technical Communication at the University of Michigan. She enjoys serving as a ”communication coach” to students throughout the curriculum, and she’s especially excited to work with first year and senior students, as well as engineering project teams, as they navigate the more open-ended communication decisions involved in describing the products of open-ended design scenarios. c American Society for Engineering Education, 2020IntroductionIn team support literature, it is not uncommon to suggest that faculty avoid strandingunderrepresented students, like women, on a team [1], [2]. However
Industrial In- strumentation and Electrical Technology Program at Northwest Louisiana Technical Community College (NLTCC) in Minden, Louisiana. She earned her degree in Instrumentation Control Systems from NLTCC and has worked in the Instrumentation field for more than 10 years as both technician and faculty. c American Society for Engineering Education, 2020 Educating the Workforce in Cyber & Smart Manufacturing for Industry 4.0AbstractThe objective of this paper is to outline the details of a recently-funded National ScienceFoundation (NSF) Advanced Technological Education (ATE) project that aims to educate andenable the current and future manufacturing workforce
provided feedback about the designs tothe professor solely for the evaluation of the course.In addition to detailing the outcomes of the project, this paper discusses the merits anddrawbacks of short timeframe multi-disciplinary teaching collaborations along withrecommendations for further development.I. IntroductionA. Industrial design and usabilityIndustrial design is a user-centered discipline and has developed many tools in its rich historyto enhance usability by helping designers to make better design decisions [1]. This could bein the form of interviews, discussions, focus group studies, or co-design [2]. In one way oranother, the user is typically involved in the process. Specifically, for a project to besuccessful, one must fully
engineering education (e.g., eTextbooks with embedded simulations) and the complex correlation between instructional material and student de- velopment. Dr. Richard is involved in many outreach activities: e.g., tutoring, mentoring, directing related grants (for example, a grant for an NSF REU site). Dr, Richard is active in professional societies (Amer- ican Physical Society (APS), American Institute for Aeronautics and Astronautics (AIAA), etc.), ASEE, ASME. Dr. Richard has authored or co-authored about 25 technical articles (21 of which are refereed pub- lications). Dr. Richard teaches courses ranging from first-year introductory engineering project design, fluid mechanics, to space plasma propulsion.Dr. Noemi V
- The Benefits and ChallengesAbstractIntercollegiate design competitions are a popular means to engage students in design activitiesthat extend beyond the curriculum. When students gather around a project in their spare timeand use their classroom skills to design, build, and test a product for an intercollegiatecompetition, something amazing happens: They develop a passion for engineering. This paperdiscusses the key benefits to engineering undergraduate students that flow from involvement in ateam design competition. Advisor involvement plays a key role in both project success andstudent learning throughout the process. Different approaches to advising student competitionteams are compared. Specific examples are taken from the authors
year and succeeded in its goals of increasing students’ knowledge of theadditive manufacturing processes. Our results also show improvement in the students’ abilities toconduct individual research projects, work in an interdisciplinary environment, utilize computer-aided tools and laboratory facilities, and improving students’ communication and presentationskills. Some limitations of the REU program are explained in the paper.INTRODUCTION Missouri University of Science and Technology (Missouri S&T) hosts an AdditiveManufacturing Research Experience for Undergraduates program. Additive manufacturing,sometimes called direct digital manufacturing, is a class of manufacturing processes where bymaterial is added in a layer-by-layer
Linköping, Sweden Belfast, UKIntroductionProject courses in which students design, build and test a device on their own are increasinglybeing used in engineering education. The reasons include that such projects do not only trainstudents skills in design and implementation but can also be exploited in order to increasestudent motivation, to give an improved understanding of engineering science knowledge and topractice non-technical skills such as teamwork and communication. However, design-build-test(DBT) experiences may also be costly, time-consuming, require new learning environments anddifferent specialized faculty competence (Malmqvist et al.1). In particular, design-build-test experiences play a
Paper 2005-2156 A Pilot Study for a “Course-less” Curriculum R. L. Kolar, R. C. Knox, K. Gramoll, T. R. Rhoads University of Oklahoma, Norman, OK 73019AbstractIn 2002, we received an NSF planning grant (NSF EEC 0230681) that builds upon our SoonerCity project, which was funded through the Action Agenda program (NSF EEC 9872505).Briefly, Sooner City is a comprehensive, integrated, infrastructure design project that is threadedthroughout the OU civil engineering curriculum, beginning in the freshman year. For practicalpurposes, the original Sooner City project was implemented in the
Session 2602 Experiential Learning in Aircraft Structures Masoud Rais-Rohani Mississippi State UniversityAbstractA design-build-test project is used as means of providing an academic-based, industry-focusedexperiential learning opportunity for students in a senior-level aircraft structures course taught inthe Department of Aerospace Engineering at Mississippi State University. Initiated as a paperdesign project in 1998, the project has rapidly evolved into a comprehensive learning experiencewith prototype development and testing as its two major elements
and image processing. One of thedriving forces behind DSP is the overwhelming interest in real-time processing as, for example,in high definition television, spread spectrum communications, and speech recognition systems.It is clear that DSP is instrumental in conveying the principles of many topics covered inelectrical engineering particularly with respect to modeling and simulation. The objective of this paper is to describe a multi-course sequence which employs DSP atmany levels of the undergraduate curriculum for the purpose of enabling students to visualize,test, and implement concepts introduced in the classroom. This is accomplished through thecompletion of special projects and laboratory exercises in multiple courses with the goal
AC 2012-3452: TRAINING APPLES TO PERFORM LIKE ORANGES: ALOOK AT UNIVERSITY TEAMING EDUCATIONJill Nelson P.E., California Polytechnic State University Jill Nelson is an Assistant Professor for the Architectural Engineering Department at California Polytech- nic State University (Cal Poly), San Luis Obispo, Calif. Nelson came to Cal Poly with more than 25 years of structural design and project management experience. She is a registered Professional Engineer and Structural Engineer in the states of California and Washington. Nelson received a B.S. degree in civil engineering from the University of Nevada, Reno, and a M.S. degree in civil engineering from the University of Washington.Dr. Andrew J. Holtz P.E
notes, software, materials for on-linetesting/assessment, and collaboration with industry through team projects. In addition, the paperexamines the role of the virtual classroom in today’s classroom and its potential for future use.Assessment results and discussion on key questions related to the efficacy of web-basedmaterials in education in general are also included.I. IntroductionThe application of computer based learning as a supplement to classroom instruction is still inmany ways in its infancy. Many key questions have yet to be answered; such as is computer-aided learning a replacement for some classroom time, does it favor one type of learning styleover another, and how do developers effectively display concepts and ideas in ways that
-facetedcollaboration to generate relevant, diverse, and cost effective experiences for faculty andstudents. And, while many opportunities exist for engineering students, only a few are currentlyavailable for technology students and faculty. We have built a collaboration that providesopportunities for both. Further, we will even report on a project that was both international andbetween engineering and technology students.Over the past five years, a collaboration has developed between the Penn State School ofEngineering Technology and Commonwealth Engineering (SETCE) and the Institut UniversitaireTechnologie (IUT) on the Béthune campus of the Université d’Artois in northern France. It nowincludes faculty exchanges, student exchanges, short term student
to enter and succeed intoday’s world, many leaders are turning to active learning and in particular to more experientiallearning [1]. Integrating experiences into the curriculum that have been traditionally outsidepresents many opportunities and challenges. Community engaged learning is a type ofexperiential learning that adds benefits of engaging students with underserved communitieslocally or globally. Within engineering, the engagement is typically through design projects [2].Community-engaged design experiences place students and universities or colleges inpartnerships with organizations that address needs of underserved people. These partners may bein the local community, within their region, or international. Together, they identify
whole. They consider the criteria andconstraints that were met by the design and formulate a description of the primary need the prod-uct addresses. Students discuss how the various engineering disciplines contributed to the over-all design and get a flavor for the collaborative nature of design. They also consider possibleuses for the product as well as how the product might be misused. In addition, students are askedto think about other ways the design could have been achieved. In some of the projects studentsare asked to design a test to discover how well the product performs its tasks. Both written andverbal communication are emphasized. Students are required to submit a formal written reportabout the product they studied. They also learn
the "international" learning [1]. Furthermore, project-based learning is alsodeployed in order to enable students from different countries and across diverse disciplines toengage in the interactive peer-to-peer learning within the same virtual learning environment inorder to develop their collaborative design skills that are otherwise difficult, if not impossible, toacquire in traditional engineering classes. Specifically, the class was equally divided into 16project teams, each was composed of 2 American, 1 Israelite, 2 Indian, 1 Chinese, and 1 Koreanstudents. These globally distributed teams were tasked a semester-long project to design “acollaborative learning space on university campus”. They went through four major milestones
University Dr. Daniels is a member of Uppsala Computing Education Research Group (UpCERG) at the department of Information Technology, Uppsala University. He is primarily interested in the areas ”Learning in international open ended group project settings” and ”How to promote and assess professional skills”. Mats is also Director of studies at the department. ˚ Sofia CajanderDr. Asa Page 20.24.1 c American Society for Engineering Education, 2014 Integrating Global Systems Development Skills into the Engineering CurriculumAbstract Educating the ”global engineer” has been
Session 2364 Integrating Service-Learning in a Sophomore-level Materials, Manufacturing & Design Lab* Edmund Tsang College of Engineering and Applied Sciences, Western Michigan UniversityAbstractService-learning was successfully integrated into a sophomore-level course to teach materials,manufacturing and engineering design to mechanical engineering students. The course met aprogram need for a sophomore course with substantial design content and the service-learningdesign projects carried out by the students met two needs of the K-16 community. Based on
order toaccomplish this, the following research questions were proposed: · Will drawing an object in 3-D and producing that part with a Rapid Prototyping system as part of an Industry initiated project improve student visualization skills? · Does industry and education see benefits in this type of partnership?To do this several courses and industrial projects were used and evaluated for visualization skillimprovement and perceived benefits to provide a more complete picture.NeedThe need is seen as twofold in nature. Industry needs both trained personnel and access tospecial services. Education needs to provide trained personnel and access to the latesttechnology possible. Graphics is one of the core areas and permeates most
scientific concepts and exciting them about the field. Students introduced to this projectwill be exposed to various topics of soft materials, magnetism, and parametric design that interplayin the design of soft robotic systems. This paper presents a “Wacky-Waving-Non-Inflatable-Arm-Flailing-Tube-Man” that undergraduate students can design, build, analyze, and test. The projectcan be tailored as a classroom activity, a laboratory exercise, or a group project. Students willdesign several tests to determine the best design to achieve a tailored flailing configuration. Thetwo major elements of their designs that students will be able to modify include: 1) a selectionamong a subset of provided silicone elastomers that they will select based on their
simulation tools, such as Aurora Solar, Open Distribution System Simulator,REopt, and System Advisor Model (SAM), to analyze system sizes and energy consumptiondata. Through comprehensive techno-economic analyses, the competition project team proposedfourteen solar PV systems with varying production capacities. In aggregate, photovoltaicinterconnection is anticipated to reduce the local utility company's demand by approximately10%. This case study equipped the strategic plan for the university with the solutions required torealize its aspiration of expanding its photovoltaic portfolio. The work performed by thecompetition team at Illinois State University placed second in their district in 2023. This was thethird year of Illinois State University's
entrepreneurial senior design projects were funded; 50 ormore students participated in the business plan/entrepreneurial senior design projectcompetitions; one of the projects received national and state recognition; five projects receivedregional/Mercer awards; more than 30 papers were presented in regional, national, andinternational conferences by faculty and students; students and faculty applied for 3 provisionalpatents and 1 utility patent; students and faculty are in the process of forming at least two startupcompanies focusing on low cost electromechanical and biomedical devices; and more than 20students are working as intrapreneurs in major industries/corporations in Georgia andneighboring states. Students and faculty team are preparing to
-funded projects. She has served as the Principal Investigator for National Science Foundation Advanced Technological Education Projects continuously since 1994.Pamela J. Silvers, Asheville-Buncombe Technical Community College Pamela Silvers teaches in the Computer Technologies Department at Asheville-Buncombe Technical Community College. Currently she is Principal Investigator (PI) for an NSF ATE Grant entitled Skilled Workers Get Jobs 2.0: Appalachian Impact which includes ©American Society for Engineering Education, 2023 A Proven Strategy to Improve Funding Success Rates for Two-Year Colleges Seeking Grants from the National Science Foundation Advanced Technological
Paper ID #38410Making to the Future: An Innovative Approach toUndergraduate Science EducationS. Catherine S. Key Dr. S. Catherine Silver Key hails from the Midwest, having been born and raised in St. Louis, MO. She received the Muriel E. Babcock Award for Outstanding Achievement in the Biological Sciences upon graduating magna cum laude with her B.S. in 1988 from the University of Missouri at St. Louis. She worked for one year as a research technician at Washington University in St. Louis on the Human Genome Project before moving to North Carolina to pursue her Ph.D. in the Department of Microbiology and