, consensus standards, and intellectual property. Direct instruction onregulatory basics was introduced, and consensus standards were integrated into capstoneprojects, strengthening the assessment of Student Outcome 2. To address gaps in hands-on skillsidentified in Student Outcome 6, Arduino-based labs, previously limited to capstone courses,were incorporated earlier into the curriculum, including lower-division courses. On-demandworkshops were also introduced to further enhance students' practical engineering skills. In ourreport, we also highlighted the BAC’s role in curriculum alignment and course assessment,alongside its contributions to sponsoring capstone projects, organizing company tours, andparticipating in capstone showcase events. Since
their activities, iRIDE is unique in the way itrecruits participants. The students consider the dynamics of their communities and discuss theissues their communities face, for instance, the lack of sidewalks, brainstorm solutions using theengineering design process and present the results to community stakeholders, including parentsand teachers. Similarly, in iRIDE, students utilize the issues their communities face and theirprior experiences to determine the scope of their Capstone Project, the hallmark of the SummerAcademy. The following sections offer detailed information about the iRIDE program, methodsfor evaluation, findings, and future implications.iRIDE Structure The goals of the iRIDE program are forstudents to apply math and
clinical trials, economics, ethics, and regulatorystrategies. Throughout the second year, students will continue working on their research project,with the culmination of the second year being a summer clinical or industrial immersion relevantto the project. In addition to immersion experiences, we are planning tracks: research,entrepreneurship, professional school, and industry; while these are at early stages indevelopment, they are being developed to integrate with other campus activities.Beginning junior year, students will continue undergraduate research while being extensivelytrained in engineering design, in contrast to traditional education which focuses primarily ondesign in the senior capstone course. The coursework for this year is not
are skills most employers are looking for. Suchinnovation is not unusual for well-funded California universities, but we are excited to be trying similarinnovations at an urban university in Texas. There is also literature in sustainability curriculum to suggestthat community partnerships can be an enormous asset.[16] We are in agreement that these partnershipscan be invaluable. We have engaged in one group project at a community garden (mentioned above). Asfield trips we have visited local sustainable energy companies, urban farms science labs and non-profitsfor field trips. As students have started enrolling in the Minor in Sustainability most of them haveengaged with our sustainability for their capstone projects. This has strengthened
.Simpson, et al. 9 believe that interdisciplinary experience is more representative of what studentswill find in the real world and advocate interdisciplinary capstone projects. Schaffer, et al. 10have concluded – based on their study of 256 students from 60 teams - that Cross disciplinaryTeam Learning (CDTL) increases self-efficacy across all respondents. Apelian11 believes thatone of the important skills for the 21stcentury engineer is the ability to work with anybodyanywhere. He concludes that we need to educate engineers such that they understand the societalcontext of their work and have an understanding of the human dimension around the globe,coupled with innovation and creativity. Michaelsen, et al.12 have claimed that innovation
necessary.Design faculty across a range of educational institutions still feel that the leaders of engineeringcolleges (deans, department heads, tenured faculty) are unable or unwilling to recognize theintellectual complexities and resources needed to support good design education[1].Fortunately, more and more educators are becoming aware of the issues of design, and steps arebeing taken world wide, to address the concerns of industry at large. One approach has been toform “symbiotic” partnership between industry and academia through senior capstone projects.The capstone course has evolved over the years from “made up” projects devised by faculty toindustry-sponsored projects where companies provide “real” problems, along with expertise andfinancial
societal contexts [7]. Theemphasis is on enhancing students' ability to confront social and ethical dilemmas in theirprofessional lives, acknowledging the crucial role that ethical decision-making plays inengineering practice.One approach is to integrate ethics and societal impact (ESI) issues directly into senior capstonedesign courses. This integration can be achieved through various methods, including dedicatedlectures, discussions, and project work that emphasize ethical decision-making in engineeringpractice. According to a 2016 national survey [8], 40% of engineering faculty include ethics andsocietal impacts (ESI) in capstone design courses. ESI topics such as professional practiceissues, safety, engineering decisions in uncertainty, and
how to structure a debateDay 3 – The students participated in a live AI demonstration. Hey learnedabout ”hallucinations” and the importance of have clear inputs. They also hada discuss about how AI and other technologies have bene utilized in unethicalways.Day 4 – The students worked with a professional videographer and producer 5to learn about storytelling and using technology to share an effective storyDay 5 – The students presented their capstone projects to a panel of industryand academic leaders 5 Camp Instructors
majors in the industrial setting, were reported. Arduino has beenwidely used for teaching junior and senior level controls [3]-[9] and microprocessor courses [10],computer engineering capstone projects [11], and communication systems courses [12].Arduino has also been widely used in lower-division courses. For freshman engineering students,Arduino was used as a platform to teach programming, design, and measurement [13]. In thiswork, the authors transited the Living with the LAB curriculum, which used the Boe-Bot mobilerobotics and the Basic Stamp microcontroller, to the Arduino platform. In [14], Sullivan et al. usedArduino in an Introduction to Mechanical Engineering course where freshman students designedand implemented a cornerstone project
interestsand some of these activities involve self-directed learning. The instructor madehimself available to support and guide the students during the development of theproject. The projects involved a variety of real-world applications. Each projectrequired a demonstration of the developed system to the class and a writtenproject report.Observed impact:The instructor feels that the course was timely and addressed the technologicaltraining needs of the students. The course contributed to get jobs related tocomputer vision technology. This course was also helpful for the students whosesenior capstone projects involved computer vision technology or who pursuedhigher study in the related technological areas. This course also increasedawareness and the
better align with senior design. Negative ratings (-5 to -1) were primarily from students taking the classconcurrently with senior design. They expressed frustration over the added burden and believed the classwould be more beneficial if taken earlier in their academic careers. Additionally, juniors who had not yettaken senior design (score 0) were unsure of the course’s utility in preparing them for it.Table 2: Structured bipolar ladder scores rating students' willingness to take risks,perceived innovativeness, confidence when executing ideas, perceived value of tours, andperceived value add to their senior capstone project as a result of this course
teaches students to represent and analyze social science data and to use data structures and related algorithms to solve social science problems.● ENGR 122. Our Data Technology course introduces students to R with an emphasis on data analysis techniques, including basic statistics, linear and non-linear curve fitting, clustering, natural language processing, neural networks, databases, Structured Query Language (SQL), and data cleaning and management.● ENGR 195E. The final course involves a capstone project in which students apply their computing skills to solving problems or generating insights in their chosen area of study. Students work in self-selected teams and define their own project topics.The current paper focuses on survey data
site in Panama. This second structure will also be used as a trainingdemonstration site for mission teams to visualize and help plan for construction when in Panama.Shop drawings were created based on the design and implementation. This research involvedcommunity-based activity and engagement in Cieneguita, Panama as well as Lineville, AL.This research is the second phase of a multi-phase research effort. The research wasaccomplished as part of a scholarly capstone project in the Auburn University’s McWhorterSchool of Building Science (BSCI) Master of Building Construction (MBC) Program. Thepurpose of the capstone project is to demonstrate the student's ability to independently explore anew topic, demonstrate appropriate application of the
- gineering and engineering technology courses. Her research interest is in building conservation of energy and engineering education.Dr. A. Mehran Shahhosseini, Indiana State University A. Mehran Shahhosseini is a Professor in the Department of Applied Engineering and Technology Man- agement and director of the PhD Program in Technology Management at Indiana State University. He has published over 50 articles in different journals and conference proceedings. He has served as an investi- gator for research projects sponsored by National Science Foundation, Ford Motor Company, and the US Army. Before working at Indiana State University, he was a faculty in the University of Louisville for 10 years. He also has over four
generate the text of a reflection when physicallyattending the class.For the guided reflections about team functioning, the specifics of the prompting questions werecrafted to highlight positive STEM team behaviors identified in research [12-13].Students were given the opportunity to assess their strengths and weaknesses near the beginningof the semester. This self-assessment was to be used to track changes in the students’ perceptionof the strength of their teamwork skills.Most of the students in this class were simultaneously enrolled in either a junior-level requiredmulti-disciplinary group project course (a pre-requisite for a two-semester capstone sequence)where the MET students work on a 4-person semester-long team project with junior
a moreindependent, industry-like environment than a traditional classroom style.Project Location The project took place at MSU’s new Software Factory2. MSU’s Software Factory ismodeled after University of Helsinki’s laboratory of the same name3, and aims to collaborate anddeliver products to industry partners1. In turn, this creates a platform for students to experiencesoftware development in an authentic industry environment with real-world projects, problems,and deadlines. Previously, the Software Factory had only hosted teams of senior university levelstudents as an interdisciplinary capstone course. The physical environment of the SoftwareFactory made it an obvious choice to provide the students with a pleasant and
theirprogress. This approach not only transforms the courses but also influences course content andmaterials development, highlighting the importance of rethinking assessment strategies inengineering education for improved student learning outcomes. The outcomes of these studies willbe underscored to recognize the intellectual capacity of students in solid mechanics courses.Existing course structures in universities also feed into this work. Engineering education’s push tochange first-year and senior-year experiences has resulted in many capstone and project-ledcourses. The Clemson University department of Civil Engineering experimented on the newcourses in civil engineering called “Springers” because they serve as the foundational stones ofthe
found in a traditional high schoolprogram, specialized courses that include an introduction to research method and twoTechnology and Engineering courses, and a University- or industry-based research mentorshipthat starts in the summer of the 10th grade and culminates in a senior capstone project. TheIntroduction to Research method class is designed to provide students with a vital, year long,full-emersion experience into the processes and activities involved with scientific andengineering research and practices. The Technology and Engineering courses, in 10th and 11thgrades, introduce students to the technology tools and their applications in science andengineering practices through modern, hands-on experiments. These courses integrate a
, program and project management. LTC Raby teaches EV450 (Environmental Engineering for Community Development) and EV 481 (Water Resources Planning and Design).Mr. Erick Martinez, United States Military Academy Erick Martinez is a Captain in the United States Army and an Instructor in the Department of Geogra- phy and Environmental Engineering at the United States Military Academy. He is a 2007 graduate of the United States Military Academy with a B.S. in Environmental Engineering and recently graduated from the University of Florida with an M.E. in Environmental Engineering. He teaches Environmen- tal Engineering for Community Development, Environmental Science, and Environmental Engineering Technologies.Col
engineering profession, and through this coursework, to learn frameworks for analysis: a policy or an economic framework, for example. These courses are also open to (and popular with) nonmajors, leading to interdisciplinary discussions and project teams. The curriculum builds to a unique capstone experience (e.g. Rossmann and Sanford Bernhardt, 2015).Engineering students at Lafayette College also take approximately one-third of theircourses outside STEM subjects, in the humanities, arts, and social sciences. Thesedistribution requirements introduce engineering students to alternate “ways of knowing,”comprising a liberal education. However, these requirements are not necessarilyintegrative; they may provide opportunities for
undergraduate and graduate students, even the processes of soliciting, administering,and managing industry projects that reinforce academic topics in engineering, technology,manufacturing, project management, lean, financial literacy, and six sigma1,4-11. Additionaltopics that are reinforced include professionalism (through interaction with industry), teamwork,and leadership12. These projects are also assessed as student work to meet the student learningoutcomes13. The results presented in one paper that reviewed student capstone projects indicatedthat first cost (initial cost) is the most significant metric, followed by annual worth, and payback(simple) within the students’ analysis of their engineering design. Of these top three engineeringeconomy
engineering degree programs, includes combined with an embedded computer on mobileproviding a two-semester capstone project designexperience. In a few cases, undergraduate electrical 1platforms to demonstrate automatic following Details of these technologies were received asscenarios in indoor environments.Figure 1.0 Illustration of stop-and-go and adaptive cruisecontrol (ACC) technologies. Figure 2.0 Raspberry Pi 2B Single Board Computer intriguing by
Paper ID #48083Engineering for One Planet Sustainable Engineering Leadership Microcredentialthrough General Education Credits with Maritime TargetsDr. Robert Kidd, State University of New York Maritime College Dr. Kidd completed his B.S., M.S. and Ph.D. at the University of Florida in 2011, 2013, and 2015 respectively. He worked at the Center for Intelligent Machines and Robotics at UF from 2009 to 2015 researching the use autonomous ground vehicles including ATVs, a Toyota Highlander, and a Posi-Track tractor. Since 2015, he has taught capstone mechanical design courses at SUNY Maritime College. His current research focuses on
students in hands-on projects and problem-solvingactivities [1], [10]. These are not simply introductory surveys; they involve active design andbuilding experiences. This early and consistent exposure to design and prototyping continuesthroughout the program. Laboratory courses, integrated with lectures, reinforce theoreticalconcepts in subsequent years. The curriculum culminates in team-based senior capstone projects.These capstone projects frequently address authentic engineering challenges, often in collaborationwith industry partners, providing students with invaluable real-world experience. This approach,embedding industry partnerships, internships, and co-op experiences throughout the studentjourney, ensures graduates possess both technical
undergraduate electrical engineering capstone project at SeattleUniversity in which the students gained first-hand experience designing and implementing anoff-grid solution in an LEDC. In particular, four students designed and assisted in the installationof a 4.8 kW hybrid wind and solar energy kiosk as part of a larger multidisciplinary team ofabout 20 volunteer practitioners. The energy kiosk provides electricity to 70 families in ruralMuhuru Bay, Kenya. The project is the grand prize winner of the 2014 National Council ofExaminers for Engineering and Surveying (NCEES) Award for Connecting Professional Practiceand Education.This paper provides an overview of the project and highlights the technical and non-technicalconstraints encountered. Because
Mid-Atlantic ASEE Conference, April 7-8, 2017 MSUrespond to customer critical comments on performance. The goal was to give students authentichands-on product development and project execution experience to relate to potential internshipand professional employers.The spirit of this project is in line with previous successful efforts to expose students to“authentic” engineering experiences and environments through, for example, Service Learning[1], Learning Factories [2], Capstone Projects [3], hands-on 1st-Year Engineering Courses,Learning in Laboratory Settings [4], and Engineering courses featuring Mechanical Dissection asa learning tool [5].The current “Illuminated Umbrella” project is a continuation of the pilot “Authentic
. Students complete an integrative design project in each courseand apply presented theory into real-world engineering problems. Course deliverables includewritten reports with detailed design data and analysis, group and individual presentations, andone or more working, physical product prototypes. Projects are also used to introduce enterprisesoft skills, including various levels of communication, teamwork, professionalism, andrecognizing ethical values. The sequence is finalized by a senior level capstone “Senior Design”course that requires student participation in interdisciplinary teams to bring a product fromconceptual design through manufacture. Activities include detail design, material selection, costestimation, process planning, schedule
Management Training and Conflict Resolution Practice via Large Language Models,” Future Internet, vol. 16, no. 5, Art. no. 5, May 2024, doi: 10.3390/fi16050177.[11] K. K. Fierke, G. A. Lepp, and K. M. Jones, “Teaching conflict management: An approach to increasing students’ value, confidence, and ability,” Curr. Pharm. Teach. Learn., vol. 15, no. 3, pp. 252–257, Mar. 2023, doi: 10.1016/j.cptl.2023.03.005.[12] M. Sollitto and M. Mehrubeoglu, “Incorporating conflict negotiation training in a senior engineering project management (capstone projects i) course,” in 2020 ASEE Virtual Annual Conference Content Access, 2020.[13] Z. Botha, “Collaboration and Diversity in STEM,” J. South. Afr. Inst. Min. Metall., vol. 122, no. 9
University. She excels at leading cross-functional projects, and on MEERCat, she drives the Center’s overall strategy, operations, and research-to-practice initiatives. At Purdue, Angela’s passionate about driving change in the School of Mechanical Engineering and making the experience even better for future students.David Allen Evenhouse, Purdue University, West Lafayette David Evenhouse is a Graduate Student and Research Assistant in the Purdue School of Engineering Education. He graduated from Calvin College in the Spring of 2015 with a B.S.E. concentrating in Mechanical Engineering. Experiences during his undergraduate years included a semester in Spain, taking classes at the Universidad de Oviedo and the Escuela
2012 ASEE Annual Conference and Exposition”, AC 2012-392015. Trainor, T., McCarthy D., and Kwin M., “From Cornerstone to Capstone: Systems Engineering in the West Point Way”, Proceedings of the 2010 ASEE Annual Conference and Exposition”, AC 2010-153116 . Gipson, K.G., Henriques, J.J., and Sequeira, S., “ Development and Implementation of a Cornerstone Course: Engineering Opportunities”, Proceedings of the 2015 ASEE Annual Conference and Exposition”, Session 1158017. Vernier, M.A., Wensing, P.M., Morin, C.E., Phillips, A.P., Rice, B., Wegman, K.R. and Hartle C., “Design of a Full-Featured Robot Controller for Use in a First Year Robotics Design Project”, Proceedings of the 2014 ASEE Annual Conference and Exposition