institution, Seattle University, has an ABET accredited Civil Engineeringprogram. The average class size in a civil engineering discipline specific course is around 25.One of the missions of the department is for graduates to possess strong written and oralcommunication skills. Communication skills of the students are developed throughout the civilengineering curriculum starting with laboratory reports in the sophomore year through a year-long, industrially sponsored capstone design experience where students prepare writtenproposals, design reports, memos, reflection papers, and posters for an external project sponsor. CEEGR 3530 - Soil Mechanics is a 5 (quarter) credit junior level course required of allcivil engineering majors for graduation
led electrospinning to find applications in variousbiomedical applications such as tissue engineering and drug delivery [1, 2]. However, severalparameters can greatly affect the production quality of fibers, such as concentration of the polymersolution, voltage, feed rate, and ambient conditions [3]. Controlling the manufacturing ofelectrospun fibers presented a unique engineering problem that could integrate concepts frommultiple bioengineering courses including biomechanics, circuits, computer aided design (CAD),thermodynamics, and biomaterials into a single engineering design project with real-worldapplications. This project served as the basis for a new junior-level design course that will betterprepare students for their senior capstone
) highlyinfluence the adoption of educational responses towards sustainability in the civil engineeringcurriculum. The accreditation requirements ensure that sustainability is addressed in specificdiscipline-based units, and to a greater extent, in the capstone unit. Barriers, however, occur inboth cases because sustainability considerations are not scaffolded. The cross-case analysisalso shows that while project-based environments were the most common type of educationalresponses implemented to strengthen students’ sustainability-based knowledge and skills,findings suggested projects do not always encourage the same complexity of problems and,consequently, do not generate the same level of learning outcomes. Results also reveal thathidden-curriculum
industrial roboticequipment.Development of the walking-beam conveyer and the Geneva mechanism was undertaken by twostudents as senior capstone projects in academic year 2019-2020 [5], [6]. Initially it wasenvisioned that the students would at least begin parts fabrication in the latter part of springsemester 2020. However, when the university pivoted to remote operation in March due toCOVID-19, the scope of work was refocused to concentrate on more detailed CAD modeling.Sample images of the CAD models produced by the students are shown in Fig. 7.Fig. 7. Sample views from CAD models resulting from student senior capstone projects; left:walking beam conveyor, right: Geneva mechanism.In fall 2020, fabrication was begun in the UNH ET program’s machine
Surveying and Estimating, and the CM Capstone course. ©American Society for Engineering Education, 2023Using Conceptual Cost Estimating as a Constraint and Tool in DesignCurriculumAbstractArchitectural firms use simple unit/area-based, pre-design budgeting to develop/confirm projectscopes with clients. These budgets are created based on project history, plus the knowledge oflocal site attributes and contingencies associated with the specific project type to be designed.The typical budgeting models used lack specificity and do not address enough variables for atypical pre-design budget requirement. As an architectural and construction consultant,representing owners in the selection of professionals for project
adapted to cover moreadvanced topics such as signal propagation, phase distortion, and advanced wireless networks.To demonstrate the practical knowledge the students learned from the RF curriculum, theprogram should require a student-driven RF-related project. This senior capstone project doesnot necessarily have to involve building an RF device. It could be a methodology inmeasurements or an automated process development. The only requirement is that the projectshould fully display the knowledge and skills acquired from the curriculum. The projectdemonstrates the capabilities and readiness of the students to take on real-life RF engineeringtasks.Curriculum Design – Lab ActivitiesThe laboratory activities are centered around three major RF test
reasons, we chose to partnerwith and support nonprofit organizations to help them bridge their technology gaps by providingcustom-built software tools for their operational requirements.The remainder of this paper will elaborate on how the partnership started, the challenges we facedthrough the process, and how some of these challenges led to adjustments in our approaches.Some of the challenges are still to be looked into and would require some strategic and creativesolutions to solve in our future expansions of community-engaged learning.The Starting Point: Capstone ProjectsOur Computer Science degree program requires students to complete a series of two courses:Senior Project I and Senior Project II. During these courses, the students work in
processes and integral, discrete, and shrink/expansion fastener systems. 45% 70%ConclusionsThis project-based instructional approach corresponds to XXXXX University’soverarching goals for its undergraduate programs for engineering technology students.The knowledge and experience gained through student completion of various teamprojects during their freshmen through junior academic years is expected to form a strongfoundation for the senior capstone project (an implicit goal of most courses within theengineering curricula). At the capstone level, students undertake an often unstructured,broadly-defined, real-world problem. Many of these capstone projects entail solvingmanufacturing process issues for production
include: a. Reference [1] presents the design of a low-cost 3D printer using off-the-shelf components. The printer is constructed and then used as a demo for a high school STEM outreach project. b. Reference [2] illustrates how design projects can be used to foster self-directed learning (SDL). This paper details how various course design projects are used to help students gain knowledge of high-level engineering software programs through SDL while satisfying ABET outcome 7 to “acquire new knowledge.” c. References [3 – 6] detail various senior capstone projects whereby groups of students are partnered with industry and faculty to solve large, complex engineering problems. d. Reference
, compensator design for continuous-time and discrete-time systems, analog or digital filter design, and hybrid power system design. ©American Society for Engineering Education, 2023 Efficiency Analysis of a Hybrid Solar System DesignAbstractThere are multiple parameters to study when measuring the performance and efficiency ofPhotovoltaic solar cells. This paper is a part of one-year capstone project results forundergraduate students in Electrical Engineering major. This capstone project focuses onmaximizing the efficiency of a 100-Watt, 12V solar panel and studying its implementation in ahybrid power source system. Solar cell efficiency can be checked by measuring the poweroutput, voltage-current
definitions: Identifying requirements, Develop Preliminary Design, DevelopDetailed Design, and Final System Design. The updated phase definitions were created toprovide more structure for the student teams and better capture what the school’s design processwas in practice rather than in theory.This paper will present the original and revised project phases and the review of the designprocess. This process should be of interest to programs with capstone experiences and other teamdesign project courses.BackgroundEngineering is a field that consistently updates with ongoing technological advancements. Theemployers of engineering graduates demand technical knowledge and other professional skills[1]; communication skills, teamwork, multidisciplinary work
critical role in sustaining thenation’s economic prosperity, security, and social well-being, engineering practice will bechallenged to shift from traditional problem solving and design skills toward more innovativesolutions imbedded in a complex array of social, environmental, cultural, and ethical issues”[29].Unfortunately, there has been a lack of attention to innovation in engineering education [7].Except for capstone projects in their senior year, engineering students are basically trained thatthere is one answer to each problem. Homework and exam problems all have a single correctsolution. Besides the fact that many real-world problems do not have a single answer, many real-world problems are not as well-defined as they are in the classroom
Paper ID #37433Detecting Dimensions of Significant Learning in Syllabi Using a CourseChange TypologyDorian Bobbett, University of Nebraska - Lincoln Dorian is a 4th-year chemical engineering undergraduate student at the University of Nebraska-Lincoln. She has been involved in Engineering Education Research for 2 years under the supervision of Dr. Grace Panther and Dr. Heidi Diefes-Dux on projects related to faculty development, adaptability, and educa- tional research methods. She will be pursuing a PhD in Engineering Education Research at the University of Michigan beginning in the Fall of 2023.Grace Panther, University
the senior engineering capstone program which is a multidisciplinary, two-semester course sequence with projects sponsored by industrial partners. Within this role, he focuses on industrial outreach and the teaching and assessment of professional skills. Prior to joining WCU in 2018, he spent a decade in industry managing and developing innovative technologies across a broad spectrum of applications: SiC and GaN high voltage transistors for energy-efficient power conversion, radio frequency (RF) surface acoustic wave (SAW) filters for mobile phones, and flexible paper-like displays for e-readers. He holds 31 patents related to semiconductor devices and microfabrication and has published in IEEE and AIP journals and
toprogramming software, without compromising the support for low and intermediate-leveleducation.The CourseThe Electrical and Computer Engineering Technology (ECET) program at Western CarolinaUniversity is focused on preparation for industry. The regional employers are typically discretepart and product producers that make extensive use of industrial control systems. Graduates ofthe schools typically go to work for aerospace, automotive, medical, and similar industries.The school receives annual feedback from external sources including an Industrial AdvisoryBoard (IAB), capstone project sponsors, alumni, and industrial partners. They all share acommon message that there is increasing demand for mechatronics knowledge that is not beingsatisfied by
are studied to assess the short term and longer-termdevelopment of the students. The research questions considered are 1. What are the students’ initial responses to encountering an open-ended analysis project? 2. Do the students’ technical skills develop linearly during the courses or is the development recursive? 3. How do students’ conceptualizations of an open-ended problem develop throughout the project? 4. Does an open-ended project in a cornerstone course provide improved preparation for senior capstone?These research questions are assessed via a sequence of surveys and interviews of students fromboth cohorts.IntroductionThe arrival of COVID-19 in 2020 to North American university campuses was disruptive
. Erik has spearheaded the Clarkson Civil & Environmental Engineering (CEE) Capstone design experience since 2015, using project teams as direct consultants with internal and external clients across the State and region. He has presented on one such project at the ASEE St. Lawrence Section conference on one such CEE capstone effort in the past. He also teaches courses in a variety of areas connected to both building and infrastruc- ture construction. Previous to his time at Clarkson, he was an Assistant Professor of Military Science at George Mason University in Fairfax, VA and an Instructor/Writer for the US Army Engineer School USAES) at the Maneuver Support Center (MANSCEN), Fort Leonard Wood, MO. He was
objectiveof implementing this game within a classroom environment is to start the discussion on teaming,as well as provide a low-fidelity simulation of the design process for comparison during thesemester. Later in the semester, concept selection methods are taught with the reminder that it isnot ideal to simply argue based on initial biases and gut feelings. The game was introduced inboth a first-year and capstone engineering design course. The first-year students were asked toreflect on the experience and determine what personalities hinder a discussion and whichcombinations are beneficial to a group's experience and success.IntroductionTeaming is one of the most challenging aspects of an engineering design project, especially inthe college setting
fields.COURSES AND CURRICULAThe proposed Master of Engineering Program consisted of 30 credit hours grouped into corecourses taken by all students in the program, track courses from the discipline of interest (civil,electrical, or mechanical engineering), elective courses that provide depth and interdisciplinaryfocus depending on the student’s interest, and a graduate capstone project course to demonstrateapplicability of skills and synthesis of knowledge. Table 1 shows the program courses for each ofthe three track options. Each course is 3 credit hours.Table 1. Proposed Program Courses (program total 30 credit hours) Core Courses • EAET 5000 Engineering Modeling 9 credit hours • EAET 5001 Design Optimization (Choice of 3
create integrated writing instruction within their own institutions.Approach to integration in one programAt Boise State, we work to integrate communication skills instruction and feedback into project-based courses in materials science and engineering. Harold teaches sophomore and junior labcourses as well as the senior capstone courses. This multiyear sequence provides the opportunityto build a progression of technical education integrated with communication and professionalskills education. The laboratory courses are built with multi-week modules designed to mimicengineering projects one might experience working in industry, drawn from Harold’s personalexperiences in multiple companies. Most modules are staged in progressive phases
, Architectural Technology, and a Master’s in Facility Management. His field experience includes residential and light commercial construction. He has been an architectural designer as well as superintendent for single and multi-family residential construction projects. Mr. Ray worked as an engineering design manager in the Building Components Manufacturing Industry for over fifteen years.Elizabeth Freije, Indiana University–Purdue University, Indianapolis Elizabeth Freije is Program Director and Senior Lecturer in the Department of Engineering Technology at Purdue University, Indianapolis. She received her BS in Computer Engineering Technology with a minor in Mathematics. She received her Masters in Technology at Purdue
andmultidisciplinary coordination contexts. Students in our BSc (Honours) BIM program, as a resultof our masters, have a scaffolded pathway leading to a level 9 qualification in BIM.The BSc (Honours) and MSc programs require students to conduct research in the form of adissertation and capstone project, respectively. The significant collection of documents producedby students and teachers in these programs includes BIM-focused conference publications,industry reports, and research thesis papers published at the BSc (honours), Master’s, and Ph.D.levels.BSc research at TU Dublin typically provides a synthesis of existing publications on a topic ofrelevance in Ireland. The final output is a research paper to a “starter” conference paper standard.The MSc capstone
Engineering student? Tune in for capstone day interviews with graduating seniors on teams High Rollers, PIT, and Glide Walkers. o 2022 Capstone Design To learn more about the projects described here and our capstone design program, check out the Department of Mechanical Engineering's Capstone Brochure and Annual Report at: https://mechanical.gmu.edu/connections/senior-design- capstone. • Target audience: college students o Mason ties to the Naval Air Warfare Center Aircraft Division (NAWCAD) In this episode hear from Jazzmin Robinson, Mason alum and student leader, on her pathway to a Navy civilian career, along
and energy is spent training new hires. Potential student hires are often a “neglectedpopulation,” but are an important group that can increase the efficiency and productivity of acompany [7].Industry-based projects, or capstone projects, are a common example of how IABs can directlyimplement their experiences in the industry to make students familiar with their day-to-day work.[3] researched the role of IABs in the two-semester capstone design project in the ElectricalEngineering Department at the University of San Diego. The advisory board was highly involvedin the project: attending the presentations, changing the structure of and brainstorming ideas forthe project, and aiding lectures on professional topics. The result for students was
multipledisciplines within the College of Engineering). The teams were composed of students from threecolleges: Engineering, Earth and Mineral Sciences, and Information Sciences and Technology andwere interdisciplinary in composition. Ninety-eight percent of the project teams containedstudents from multiple departments from these colleges, while sixty percent of the teams consistedof students from three or more departments.The capstone design projects were facilitated over the course of a semester through regular classmeetings supervised by engineering faculty members across the College of Engineering. As partof the course, students were prepared to communicate their final projects at a public end-of-semester showcase event, where design teams presented
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
model is that increasing the level ofimmersion in professional scenarios will impact levels of student engagement and behavior. Totest this assumption, in the Spring semester of the 2022-23 academic year we initiated a pilotstudy of a full-immersion in a Tech Startup project. This project integrated curricular credit forcoursework whose core competencies aligned with the tasks of forming a technology startupcompany. Several courses from Ohio University’s Entrepreneurship Certificate Program and theMechanical Engineering Capstone Design (semester 1) and Experimental Design courses wererestructured to allow students to have a full schedule of classes immersed in real project work. Ateam of five students including two business students and three
students easy, perhaps even commonplace, making faculty rethink globalcooperation in higher education [19, 20].The unique nature of capstone engineering courses resulted in additional challenges towardeffective delivery during the pandemic, with one faculty member commenting “lack of in-persondiscussions, team collaboration and time spent in the lab all have negative impacts on the project”[21]. Many adaptations were made during the pandemic to allow students to effectively work onchemical engineering capstone projects as part of a team, such as focusing on design tasks usingsimulation tools (e.g. ASPEN) and managing group meetings through video conferencing software(e.g. Google Meet) [22]. It is possible that knowledge of these practices
pedagogy in introductory engineering [3], design skilldevelopment in courses between introductory cornerstone and final capstone [4], and even uniteclinical and engineering students [5]. Some universities are exploring the best ways toencourage faculty to incorporate makerspaces in their curricula. This may take as simple a formas pop-up “inreach/outreach” demonstrations that expose faculty and staff to makerspaceequipment [6]. For those seeking a higher intensity experience, B-Fab, a fabrication workshoporganized by Bucknell University, trains faculty to use equipment often found in a makerspacewhile exposing them to related pedagogical theory and example makerspace STEM projects [7].Carnasciali and coauthors surveyed faculty given three
the four comparison sections did not complete theintervention.Figure 1. Activities and timeline for critical-narrative interventionProject-Group Discussion AssignmentBoth the study and comparison groups were required to complete the project-group discussionassignment near the end of the semester. Because the primary objective of this research effort isto gain insights on the impact of critical narratives on students’ abilities to identify the broaderimpacts of engineering work and transfer these abilities to their own senior/capstone designprojects, researchers designed the group-discussion exercise to be focused on each groups’senior/capstone design project.The project-group discussion (PGD) was organized in an identical manner to the