sustainability, we highlightthe proposals of [7] and [20]. Authors of [7] developed an analytical sustainable design rubric toaid quantifying students’ abilities to incorporate sustainability into capstone design projects inthe civil and environmental engineering context. It aimed to capture not only the extent to whichstudents engage in sustainable design but also the influence of project sponsors and/or courseinstructors on sustainable design expectations. In [20] the above-mentioned rubric is reviewedand extended in order to broaden its applicability to engineering design projects outside of civiland environmental engineering. Nevertheless, the original and the reviewed rubrics only partiallycover the five sustainability dimensions discussed in the
elements were not as important as their location, which can easily beedited and updated using Revit.Figure 5. Revit architectural project as base for structural skeleton: left, brochure plan; right, 3Dview (used courtesy of Sean Eubanks, Woodhill Studios, Inc.).Third VersionThe latest version of the class involves removing the structural engineering component (andRevit), focusing solely on land development projects. This decision reflects current enrollmentnumbers in the department between the areas of emphasis (General, Structures, andTransportation). Some changes were made at the request of the capstone design instructors(CVEN 400: Design Problems in Civil Engineering). They voiced concerns that team projectsprevented students from maximizing
(RSOs) are given class time tospeak to students and raise awareness and potential interest in getting involved with rewardingextracurricular experiences. Additional information pertaining to course structure, includingintegration of the fundamental engineering topics and synergistic collaborations discussed thusfar, can be found in the following section.Course DeliveryThe official title of the final project all ENGR 111 students work towards through the semester isthe “Cornerstone Project”. All J.B. Speed School of Engineering students conclude theirundergraduate career with the completion of a Capstone Project. Starting in the spring of 2019,as a result of the attention and interest ENGR 111 has received from J.B. Speed School ofEngineering
master’sprogram have considered it to be a “Data Science” program. Indeed, much the same way that anengineer applies math and science to solve problems, a Data Scientist applies statistics and otherdata analysis techniques to solve problems.A Data Scientist uses more sophisticated computational tools than a Data or Business Analyst.Further, Data Scientists are typically expected to find patterns rather than answer a specificstated question. Although the goal is still to solve or address a real-world problem (e.g., bestpredict an outcome), it is easy for students to overlook that. We have found that students doingtheir capstone project are often hoping to obtain data that best shows off their skills, withoutregard to data quality or even meaning, much
discipline-specific tasks within their team. 3. Other Disciplines & Industry: CM or Architecture students collaborating with other disciplines and/or industry representatives.Table 2: Qualitative Analysis of Student Experience and Assessment Instruments Used Domain Dimensions/ Supporting Details Researcher Factor Notes Instruments 1. Summative 1. Test (no further details) (3A); reflection after team 1N Arch that assessment project (10A); capstone (8A), final project (5A,N); final involves CM 2. Formative reviews from industry
Kathy Kasley, Ph.D, Emeritus Professor, Pamela Phillips, Professor, Joseph LaSalle, BSEE, Joe Bracha, BSEE, and Ashok Kavadapu. BSEE College of Engineering, Colorado Technical UniversityIntroductionThe key contribution is that two frameworks are described in this paper for an undergraduatecapstone course. The capstone project is the Compressed Air Controller Tire Inflation System(C.A.C.T.I.S.). The project’s intent is to design a system reducing the amount of time and effortinvolved in achieving proper vehicle tire inflation. The CACTIS uses a convenient touch screendisplay and a rugged air distribution box such that multiple tires can be inflated simultaneously.This project serves as another example in
learning in the form of team projects in various courses ranging from theintroductory engineering courses to capstone courses to help students develop this important skill[3-10]. Though these team based projects do provide students with opportunities to gainteamwork experiences, it does not necessarily mean that students will develop effectiveteamwork skills from these team project experiences. In many cases, students are left on theirown to make their teams work, as little formal training is provided to students due to variousrestrictions/constraints. Some examples may include: limited time is available in the courseschedule for in-depth discussions about teamwork skills, and engineering instructors may not beaware of the fundamental research and
the problem given to them. Students oftengain confidence from these projects and provide statements such as “made me more excitedabout the major”, “made me want to take more classes to learn all that I still don’t know”, “whatI had been waiting for”, “what we are here for”, and “one of the few times where you actuallyapply, hands on, the theory that you learn all through school.” 10 These ‘capstone’ projectsusually take place during the student’s senior year.In the conventional senior-level ‘capstone’ project-centered learning project, the student has norole in the problem’s conceptual development. The problem along with all of its parameters isgiven to the student, and the student’s sole responsibility is generating the solution.Conversely
.Bean, J. C. (2011). Engaging ideas: The professor’s guide to integrating writing critical thinking and active learning in the classroom. (2nd ed.) Hoboken, N.J.: John Wiley & Sons.Blicblau, A. S., & Dini, K. (2012). Intervention in engineering students’ final year capstone research projects to enhance their written, oral and presentation skills. . International Journal of Engineering Pedagogy, 2(3), 11-18.Bodnar, C. A., Kadlowec, J. A. (2018). Initial validation of a technical writing rubric for engineering design. International Journal of Engineering Pedagogy, 8(1), 81-91.Budinski, K. G. (2001). Engineer’s guide to technical writing. Materials Park, OH: ASM International.Cho, Y. & Choi, I
the College of Arts and Sciences. Over the course of this grant, he advised over 500 individual calculus students on their course projects. He was given an Outstanding Advising Award by USF and has been the recipient of numerous teaching awards at the department, college, university (Jerome Krivanek Distinguished Teaching Award) and state (TIP award) levels. Scott is also a co-PI of a Helios-funded Middle School Residency Program for Science and Math (for which he teaches the capstone course) and is on the leadership committee for an NSF IUSE grant to transform STEM Education at USF. His research is in the areas of solution thermodynamics and environmental monitoring and modeling.Ms. Manopriya Devisetty Subramanyam
are resource-intensive and often a one-time intervention.The growth of academic makerspaces has provided an opportunity to infuse more hands-ondesign learning experiences throughout students’ education. These spaces also offer resources tostudents outside of engineering majors and make room for more interest driven learning thanmore formal design courses. While academic makerspaces are seen as a place for students toengage in design practice, how much explicit support do these spaces provide for designlearning? Many students use makerspaces as a means to engage in fabrication work for courses,such as senior capstone design courses, that formally teach and scaffold design for students.How do students engaging in interest driven fabrication
challenge faced by departments pertains to satisfying the Engineering TechnologyAccreditation Commission (ETAC) criteria for capstone senior project experience within theelectronics and computer engineering technology curriculum.A group of four engineering technology students came up with the proposal to develop, designand test the Parasitic Digital Thermoelectric Generator (P-DTG) Power System, which employsautonomous device control by an Arduino based microcontroller.Thermoelectric generators (TEGs) are renewable energy devices made up of semiconductorcomponents that directly convert the temperature difference between surfaces into electricalenergy. The efficiency of a TEG depends on the thermoelectric materials. The main advantage ofTEG is that
analytical or numerical schemesduring a design process. However, most of the students’ academic development is centered onderiving tedious equations and solving textbook problems, which are difficult to visualize andphysically understand, and cloud their intuitive nature to comprehend a problem on its entirety.These conventional approaches and methods of disseminating content in the classroom have atendency to exclude diverse learning styles of students. Thus, teaching schemes solely focused oncovering themes verbatim from a textbook or paraphrasing from a slide presentation are hinderingthe students’ ability to understand and apply all the engineering principles in design projects. Suchtechnical concern is observed during their senior year capstone
is intrinsically motivated,engaging and enjoyable. Perhaps there are qualities of play which can be leveraged to benefit thelearning process. This line of inquiry brings us to the guiding research questions for this work.Are there aspects of play which can be used to inform pedagogies which improve learningoutcomes and student experience? What aspects of play are important for learning? How canthese be emulated in engineering design projects to create meaningful learning experiences?Literature ContextOne of the primary reasons to pursue play in education is that well-designed playful activities arecommonly associated with enjoyment, engagement and immersion. In their seminal presentationof The Adult Playfulness scale, Glynn and Webster
ABETrequirement. All such assignments are graded with a rubric.Rose-Hulman. Considering the first two levels, we have case-based learning in multiple classesin our curriculum. The student responses to this learning often includes demonstration of thiscognitive learning. We do not have concerns about this being a part of our program, but areuncertain about the level of expertise the students will demonstrate for this outcome. Level 3 isinherent in our senior capstone project and in other parts of the curriculum as well, so we do nothave concerns about fulfilling this in our program. We do not currently assess this outcome, butplan to do so. Although the comments here indicate confidence about the presence of thislearning in our curriculum, we think there
installation requirements (e.g. when design doesn’tmeet reality). Overall, this project-based learning experience profoundly impacts studentlearning, as witnessed by a final student quote: “I wish everyone had to take this class prior to taking Senior Design [Capstone Experience]. This class is so helpful in learning how to manage a project! I learned more from this experience than I did from my other [engineering] courses about design.” (Bernardo Quevedo, CBED) V. ConclusionThe ongoing collaboration between CBED, BUG, and the San Jose Unified School District hasbeen successful from each perspective, delivering student projects which have added educationaldimensions to the school gardens and created a positive visual
government has proposed the “NewEngineering” series of educational reform projects to improve the quality of professionalpersonnel training, including the Excellent Engineer Training Program, Engineering EducationAccreditation, Industry-University Cooperative Education Project, etc. [14, 15]. As part of theseeducational reforms, most Chinese universities have focused on expanding joint educationalactivities with industry from curriculum construction to subject competitions to internshiptraining, as well as joint capstone design projects, etc. Fan and Shao provide an overview ofplans, programs, and challenges for university-industry collaborations in China [16].Although most Chinese colleges and universities have realized the importance of university
D 0-59 FTwo mid-term exams are introduced to cover more topics, so students have a better and clearer idea aboutdifferent projects to work on. The major change is to introduce a Final project to be demonstrated on relevanttopics. The main goal is to generate ideas for a capstone project that is required of students and is nowintegrated in the new curriculum (ETEE 4099). Each student submits HWs (10%) based on the lectures givenon Number systems, Gates, Boolean Algebra, De-Morgan’s, Logic Minimization, Latches, Counters, ShiftRegisters, different applications like MUX/DEMUX, Encoder/Decoder, Half/Full Adder etc. The students sitfor two mid-term exams (each 20%) and a final exam (20%). The first mid-term exam is
cybersecurity and establish capstone projects related to cybersecurity.Execution of tasks for Goal 1: The proposed cybersecurity Capstone (3)concentration is being implemented at NNMC (see Fig. 1).USC implements a subset of the courses: IT Technical: Internship (400 hours) Intermediate and • Introduction to Cybersecurity (3 credits, NNMC): this Upper division Advanced Info. Assurance and Network Security (3) course is one of the two
shown in Table 1. The total number of the enrolled students was 193, with 131 studentsresponding. The average course grade was 3.89 out of 5.0 scale, and the average numerical gradeearned by the students was 2.95 out of 4.0 scale. From the students’ feedback, some of themhave shown positive appreciation of lab organization that helped their learning saying the labmaterial was very well thought out and interesting. After they take these courses, they continuewith their education with other courses such as Capstone project courses. From their verbalcommunication, I have heard positive outcomes from the term project experience.IV. Discussion & ConclusionsThe author had been constantly striving to shift the emphasis from the MSP430 to
++ maintains a very close second. In fact, 4 of the top 5languages in 2018 are in the “C++ family” sharing similar syntax. We also considered inputfrom our department’s Industrial Advisory Board, recent graduates, and current faculty andstudents in selecting a programming language. Two large factors were the prevalence of usingC/C++ in our senior capstone projects, and that our computer science department teachesintroductory programming in C++. The Arduino IDE is freely available on Windows, Mac OSX, and Linux (https://www.arduino.cc/). Even though we have chosen to use C++ for theseprogramming labs, they could easily be adapted to other languages that support the Arduinoplatform such as Python or MATLAB.HardwareAs discussed above, we find that
blue), and thenreformed into seven groups for a project on ASGM (in green). In the second phase, duringSpring semester 2019, these students are developing projects to compete in the GSIC. Some tookclasses on related topics, and some were even able to make their ASGM work count as a requiredsenior capstone project. Of the original seven teams whose work on ASGM we document here,three began to develop projects in Phase 2. Eventually all but one group dropped out of the GSICexperience. Nonetheless, all three groups will be involved in Phase 3 as students travel toColombia to engage members of ASGM communities in person.Context: ASGM and the Complex Risks Associated With ItIn 2017, Colombia was among the top 20 gold producing nations of the world
the summer prior tostarting at the university. These activities include a summer bridge program, a freshmanengineering success program, an introduction to engineering design course, a guaranteed paidinternship program, a service-learning project, two professional development seminars, and anenhanced capstone experience. In addition, students are supported by peer, faculty, and industrymentors.MotivationThe challenge of recruiting and graduating low-income engineering students is multi-faceted. Ofparticular importance to the University of Illinois at Chicago as a Minority Serving Institution, isthat racial and ethnic minoritized are often also low-income students. Solutions have focusedprimarily on broadening access via outreach, aggressive
does not need to be the only source of innovation from research universities.Innovation can also come through students by way of purposely developed or enhanced courses,pedagogy, and experiences designed to create a spark or foster an existing spark, fan the flames,and fuel them to help them grow. It is unfortunate to create the spark in first-year students andthen ignore it until it is time for the senior design / capstone project; the innovators need tocontinue to learn, experience, and grow throughout their academic career. To be a meaningfulreal-world experience, an innovation concentration needs to incorporate learning and experienceswithin disciplines students will encounter once they have begun their professional careerincluding
. The MA team successfully fabricated a mug and competed withother MA chapters from universities around the country in a mug drop contest, which was held atthe Materials Science and Technology Conference in Columbus, OH in October 2015. Recently,our MA group also joined forces with another student organization to provide a ceramic part fora rocket, again using 3DP in the process. In the Senior Design Projectcourse, seniors in theirlast semester complete a ‘capstone’ engineering design project in collaboration with a mentorfrom a local industry. While these projects usually do not use 3D printing, instructors of thiscourse have noticed that student teams routinely use SW for CAD model development andsimulation. As an example, one student team
equipment as required for class projects • Voluntary Involvement - students who self-reported using makerspace equipment for projects not required for class, such as personal projectsThe engineering design self-efficacy (hereafter EDSE or self-efficacy) questions on the survey,developed by Carberry, Lee, and Ohland [10], sought to understand student perceptions regardingtheir abilities to conduct engineering design tasks. From the scores reported by students on thesequestions, we were able to get a quantitative measurement for their confidence, motivation,expectation of success, and anxiety surrounding engineering design tasks. The scores wereanalyzed across different comparison groups to see existing trends.University
freshmanclasses [17] all the way through senior design (capstone) projects [18, 19]. The autonomousvehicles have a variety of different scales and designs, including solar-powered vehicles [20],wireless vehicles, and a vehicle with a focus on infrared sensing [21]. Because of spaceconsiderations, we do not provide a summary or review of the technologies underlyingautonomous vehicles, as they are available in a number of publications on the subject [22–25].II AutoDrive at Kettering UniversityParticipation in SAE programs is a large part of the education of many students at KetteringUniversity. The institution has traditionally supported four SAE Collegiate Teams (“Teams”),including SAE Aero Design, Baja SAE, Clean Snowmobile Challenge and Formula SAE
’ Design Process Concept MapsIntroductionIn our ongoing exploration of this EAGER EEC NSF-funded project, we share results of thedesign concept maps part of our research project. This paper is intended to share formativedevelopment of a coding scheme to assess and evaluate drawings by undergraduate engineeringstudents of their engineering design process. There is a spectrum of student responses anddeveloping a taxonomy, or categorization, is helpful to better understand where students beginand end from a design project learning experience. This can then inform and illustrate the waysin which students balance breadth and depth and learn and apply their engineering know how.Design may appear throughout a curriculum or be substantiated as a capstone
sizes or smaller cooling loads were higher than with larger cooling loads.The efficiency of the cycle did not take into consideration the changes or savings that could bedone in the compressor work due to shading. If there had been any significant drop in the workdone by the compressor, then the improvement in the efficiency of the cycle would be higher. Towhat degree and to what extent, it is unknown. This has to be experimentally investigated. Thus,the team decided to take this project into further analysis and decided to investigate this as partof their capstone project. The team is in the process of preparing to measure and monitor thecondenser temperature during summer season for one-unit while being shaded and unshaded.The compressor
president of EWU’s SAE Motor Sports club and a student member of both SME and ASME.Ms. Shannon M. KellamJacob StewartDr. Robert E. Gerlick, Eastern Washington University Dr. Gerlick is Assistant Professor of Mechanical Engineering and Mechanical Engineering Technology at Eastern Washington University. He teaches courses in the areas of Robotics, Mechanics, Thermodynam- ics, Fluids, CAD, and Capstone Design.Dr. B. Matthew Michaelis, Eastern Washington University Matthew Michaelis is an Assistant Professor of Mechanical Engineering and Mechanical Engineering Technology at Eastern Washington University in Cheney, WA. His research interests include additive manufacturing, advanced CAD modeling, and engineering pedagogy