, Dr. Joshi has worked on multiple industry sponsored research projects (Michelin tweel –low rolling resistance for non-pneumatic tires, IFAI ballast friction testing project). She was actively involved in mentoring and advising Capstone design projects. She has advised over 10 different design projects –BMW, Rotary, TTi and mentored over 100 students. While at Clemson, Dr. Joshi was also awarded endowed teaching fellowship as a part of which she has taught a sophomore class on Foundations of Mechanical Systems for 2 semesters. Dr. Joshi worked as a Post-Doctoral Fellow with Professor Jonathan Cagan at Carnegie Mellon University. She investigated the avenues of internet of things and connected products. While at
programming aspect of CMM using the PC-DMS software is thoroughly covered. Theoutcome of the training program is to enable the students to fully operate the CMM withadherence to safety standards. Also, students should able to program the CMM using the PC-DMS software for inspecting a range of moderately complex industrial components.The students who have successfully completed the CMM training has the option to choose theirsenior design projects in the field of coordinate metrology and CMM.Senior Design Project on CMMThe senior design projects that surrounds the use of CMM reinforces the training that they havereceived on CMM and PC-DMS programming. One of the recent senior projects on CMM ispresented in the following sections.Development of
U.S. and Canadian Programs.” Journal of Business and Technical Communication, Oct 2004. 18(4): p. 252-290. 10. Ford, J.D., and Riley, L.A., “Integrating communication and engineering education: A look at curricula, courses, and support systems.” Journal of Engineering Education, 2003. 92(4): p. 325-328. 11. Brinkman, G.W., and van der Geest, T., Assessment of Communication Competencies in Engineering Design Projects. Technical Communication Quarterly, 2003. 12(1): p.67-81. Page 13.304.8 712. McKenzie, K. J., et al., Capstone
courses. Heys used a wiki to aid students in completing a group design project[15].Hadley used a wiki in a similar way for the capstone design course[16].ImplementationA wiki was established, tied to campus computer authentication servers, using MicrosoftSharePoint Server 2007 running on Windows Server 2008 on a dual-core Intel PC. The structureof the wiki was simple, consisting of an instructional page (edited from the default provided bythe SharePoint program), and a single page corresponding to each chapter in “ElementaryPrinciples of Chemical Processes”[17] beginning with Chapter 2. Links were created on eachpage to simplify navigation between chapter pages.Students were first assigned a contribution to the wiki with the first homework
expectations associated with theindividual outcome. Learners would be able to envision all of the components of their programassociated with specific developmental milestones in contrast to a dizzying list of coursescomprising the degree map.In addition to the archiving of student work, integrated electronic portfolio reflective exerciseswould be discipline-specific, purposefully articulating the connections of skills between courses,and the advancement of those skills throughout the curriculum. While not all ET students maybe capable of deep personal reflection, activities associated with this electronic portfolio wouldinvolve observations about technical skills, the extension of problem solving abilities, andreadiness for capstone projects. In
student programs. He has published and presented widely in areas of surface science, electronic materials and processes, project management, and industry/university relations. He holds 4 patents and has received awards for excellence in technical innovation (IBM), technical authorship (IBM), teaching (University of Colorado), and scholarship (National Science Foundation).Shekar Viswanathan, National University Dr. Viswanathan is a Professor and Chair of the Department of Applied Engineering and Lead Faculty for Engineering Management and Homeland Security and Safety Engineering. He is the Lead for six full time and fifty two adjunct faculty members. His department offers three
robot (“Tigerbot”). This robot has the ability to roam, avoid obstacles without human intervention, and is speech capable. The authors demonstrate how machines can be designed to be aware of their surroundings and adapt accordingly. In the future, artificial intelligence concepts employed in this project may be applied in the design of other machines that would assist humans in performing common household chores. This article represents efforts by students implementing knowledge acquired in a Capstone Senior Project course.IntroductionThe basic electronic transistor has steadily become smaller with a corresponding increase incapability due to the advancement of technology in the world of electronics. It
Economics (4 credits) 2. Entrepreneurship I: Managing Discovery for Wealth Creation (3 credits) 3. Entrepreneurship II: Entrepreneurship and Enterprise (3 credits) 4. One of the following options (3 credits) o Entrepreneurship III: Entrepreneurship Practicum, “The Garage” o Integrated Product Development (IPD) Capstone Projects I o Integrated Business and Engineering (IBE) Capstone Projects I o Lehigh University Management Assistance Counseling (LUMAC) o Or other independent, experiential and team project approved by the minor program director. 5. Entrepreneurship IV: Launching Entrepreneurial Ventures (3 credits)The catalog descriptions for these courses are as
top of the storage tank buoyancy force. As thehot water leaves the heat exchanger, cold water is added from the bottom of the storage tank tothe bottom of the heat exchanger. In this arrangement, whenever refrigerant flows in the coilwater circulates between the water heater and the storage tank. Figure 1: Schematic of the thermo-siphon heat recovery systemII. The Design ProcessThe design process that the students follow in the capstone senior design project is the oneoutlined by Bejan et al. [3] and Jaluria [4]. The first essential and basic feature of this process isthe formulation of the problem statement. The formulation of the design problem statementinvolves determining the requirements of the system, the given
listingand further discussions of 10 ethics-related ABET assessments follow, showing the class, andoutlining the creative and fresh assignment methods to teach engineering ethics. The ethicalcomponents being considered are highlighted in each class description given below.I. EE/COE 1195 Engineering Practice (Design) And Professional DevelopmentAssignment: Final approved project design and grade for the course.Description: UPJ COE and EE students’ senior capstone project is proposed and designed duringEE 1195 / COE 1195. The course requires students to work in small design teams to solve asignificant engineering problem. Students propose, develop, and design a solution to a selectengineering problem. The course reinforces principles of the
. 8[6] Barr, R. E., Schmidt, P. S., Krueger, T. J and Twu C-Y., “An Introduction to Engineering Through and Integrated Reverse Engineering and Design Graphics Project,” Journal of Engineering Education, Vol. 89 (No. 4), 2000, pp. 413-418.[7] Moor, S. S., and Drake, B. D., “Addressing Common Problems in Engineering Design Projects: A Project Management Approach”, Journal of Engineering Education, Vol. 90 (No. 3), 2001, pp. 389-395.[8] Sheppard, S. D., “Design as Cornerstone and Capstone,” Mechanical Engineering Design, November, 1999, pp. 44-47, New York, NY.[9] Swearengen, J. C., Barnes, S., Coe, S., Reinhardt, C., and Subramanian, K., “Globalization and the Undergraduate Manufacturing Curriculum
. 8[6] Barr, R. E., Schmidt, P. S., Krueger, T. J and Twu C-Y., “An Introduction to Engineering Through and Integrated Reverse Engineering and Design Graphics Project,” Journal of Engineering Education, Vol. 89 (No. 4), 2000, pp. 413-418.[7] Moor, S. S., and Drake, B. D., “Addressing Common Problems in Engineering Design Projects: A Project Management Approach”, Journal of Engineering Education, Vol. 90 (No. 3), 2001, pp. 389-395.[8] Sheppard, S. D., “Design as Cornerstone and Capstone,” Mechanical Engineering Design, November, 1999, pp. 44-47, New York, NY.[9] Swearengen, J. C., Barnes, S., Coe, S., Reinhardt, C., and Subramanian, K., “Globalization and the Undergraduate Manufacturing Curriculum
. 8[6] Barr, R. E., Schmidt, P. S., Krueger, T. J and Twu C-Y., “An Introduction to Engineering Through and Integrated Reverse Engineering and Design Graphics Project,” Journal of Engineering Education, Vol. 89 (No. 4), 2000, pp. 413-418.[7] Moor, S. S., and Drake, B. D., “Addressing Common Problems in Engineering Design Projects: A Project Management Approach”, Journal of Engineering Education, Vol. 90 (No. 3), 2001, pp. 389-395.[8] Sheppard, S. D., “Design as Cornerstone and Capstone,” Mechanical Engineering Design, November, 1999, pp. 44-47, New York, NY.[9] Swearengen, J. C., Barnes, S., Coe, S., Reinhardt, C., and Subramanian, K., “Globalization and the Undergraduate Manufacturing Curriculum
Paper ID #18607Embracing Ambiguity: A Framework for Promoting Iterative Design Think-ing Approaches in Engineering and Design CurriculaAnnie Abell, Ohio State University Annie Abell is an Assistant Professor of Practice at The Ohio State University in the Department of Me- chanical & Aerospace Engineering. Abell received her BS in Mechanical Engineering from Valparaiso University and a MFA in Design Research & Development from The Ohio State University with an em- phasis on Industrial Design. She teaches project-based, product design courses to senior-level and gradu- ate engineering students, as well as an
AC 2008-2566: THE STRUCTURE OF HIGH SCHOOL ACADEMIC ANDPRE-ENGINEERING CURRICULA: MATHEMATICSMitchell Nathan, University of Wisconsin - MadisonNatalie Tran, University of Wisconsin - MadisonAllen Phelps, University of Wisconsin - MadisonAmy Prevost, University of Wisconsin - Madison Page 13.1268.1© American Society for Engineering Education, 2008 The Structure of High School Academic and Pre-engineering Curricula: MathematicsAbstractOur curriculum content analysis examines how the pre-engineering curriculum Project Lead TheWay as compared to the academic curricula focus high school students’ understanding ofmathematics that would prepare them for
concisely articulate the design problem and indicate what changes in outcome orconditions are necessary for the problem to be resolved [5], [9]. Needs statement developmentmay be informed by several different types of information, including data gathered fromstakeholders, contextual research, and academic literature [2]–[4], [9].Gathering information from stakeholders to explore and define previously identified designproblems is a core component of many undergraduate capstone design experiences [10], [11].However, undergraduate engineering students are increasingly participating in co-curriculardesign projects that additionally involve the identification of design problems experienced bypartner communities [12], [13]. While the development of needs
) Student overall performance (collective course GPA) Student performance on standard tests (Fundamentals of Engineering Exam, Brazilian National Final Exam) Student performance on language tests (TOEFL) Student numbers (program participants) Pretest/post test (student preparedness and performance) Student performance in the Capstone class Associated project (documented educational and research-related collaborations) Indirect Measures Student surveys (related to instruction) Student surveys (related to exchange program performance
of multiple projects inthe local community as previously discussed. Preliminary mid-term assessment indicated thatstudents felt overwhelmed about the project and concerned that the workload is too much. Theinterdisciplinary make-up of the team has led to complications in scheduling site visits and teammeetings. To alleviate this and based on student feedback, the schedule was revised to includeone project work day each week as well as additional interim assignments to ensure that studentsare making the required progress. Specifically, the students, who were working on capstoneprojects in their various majors, felt that this was a second capstone. While that was absolutelynot the intention of the course instructors, this was a comment that
(Bloom, Englehart, Furst, Hill, &Krathwohl, 1956).Item d (knowledge and understanding of the process of design in engineering) under theengineering design skill factor, received the highest average score (M = 3.71) across all surveyitems, which is unexpected. MET10200 is a freshman second-semester course, and while thestudents have completed a few design projects in other courses, none required a thoroughunderstanding and/or participation in all the common steps (e.g., problem identification,refinement, analysis, documentation, etc.) of the engineering design process. Design projects atthis complexity and level occur during a two-semester senior capstone and/or internship. Inaddition, neither the university, department, nor the campus have a
implementing a comprehensiveproblem-based learning exercise. This paper is to share the open-ended industrial engineeringstudent project with others in the engineering education field. It chronicles the project’s design aswell as feedback from the instructor and students.The student project assignment is affectionately called “The Cookie Project” which is inspiredby a real-life example from a previous capstone project. A local gourmet ice cream company hasbuilt a cookie production plant next to their ice cream plant. This cookie plant makes homemadestyle cookies that are transported next door to be made into signature ice cream sandwiches.These tasty treats are sold at the retail ice cream shops, mostly as take home goodies.Students taking the course
having computing professionalsperform the development or using service learning as part of a capstone design course tocomplete the project.12-13 Having a real-world end user in the form of elementary school childrenchanged the perspectives of the programmers; for example, these are some of the remarks madein the post-activity survey: “This program was geared towards kids from fourth to sixth grade so we had to keep that in mind. It wasn't just a game that we were trying to do, the overall outcome of the application was for the kids to learn from it.” “[The program was] a real program to be used by real people, and not being shoved into some archive where it will never see the light of day.” “We had to think differently
anexample conversation loosely synthesized from an engineering senior capstone project (detailschanged) follow: Person A: We're falling behind on our capstone project. I really don't think the software platform we're designing is appropriate for the high school students we are supposedly making it for, and want to switch to a more beginner-friendly programming language for them, but we're already two weeks behind and my teammates just want to keep going... (continues describing the issue, then steps back for B and C to discuss) Person B: It sounds like A feels like she should be working extra hours outside of class to prototype the project in a different language so she can show her team it works
booking system).For the Fall 2020 semester, I was the instructor for the Undergraduate Final Year Project (aka,Capstone Design), which included 323 students in their final year of undergraduate study. This isthe most crucial element of the degree program within our discipline, as it gives students anopportunity to work on an extensive piece of work within the areas of Electronic Engineering andComputer Science. The project also allows students to demonstrate their problem-solving abilitiesby being able to apply a range of skills that they have acquired throughout their degree program.Overview of Teaching and Learning Changes Implemented • Preparation (Outside of Class) - Interactive Videos: As the co-ordinator for undergraduate projects
first program was an optional senior capstone project taking place with a community inCentral or South America, including two weeks of field work abroad. The second program was agraduate research program with a local service component developing sustainable developmentteaching materials with K-12 teachers based on the graduate student’s research. The thirdprogram involved short-term (three months) of field research in East Africa embedded within atwelve-month long research program on small-scale infrastructure research. The fourth programwas the Engineers Without Borders chapter at MPuT. The last student program was a graduateprogram comprised of one year of campus course work, followed by two years of field researchin a community partnering
, capstone projects, and real-worldexperiences. In addition, other benefits would accrue: • Real world skills and attitudes that reflect the importance of sustainability in engineering; • A critical awareness of the emerging new role for the contemporary engineer in society and the world; and • An evolving, critical, and professional self-reflection for envisioning future environments.However, will administration, faculty, and staff at our university be amenable to the introductionof sustainability in their courses and into the curriculum? What do students want in theireducation and courses that address sustainability? How might critical resources, such as ourlibrary staff, aid us in curricular development? What might be the
collected across both focal groups as participants engaged in teamwork and project development. Artifacts Artifacts included participant timelines, course syllabi, and all documents associated with the capstone course. Questionnaires Demographic questionnaires were conducted in order to solicit information about participants’ language and schooling backgrounds.Data were analyzed through an iterative process that involved multiple stages. For the purposesof this paper, we focused on the interview data, which was cross-checked with the
Robert M. Bunch is a Professor of Physics and Optical Engineering at Rose-Hulman Institute of Technol- ogy and an Innovation Fellow at Rose-Hulman Ventures. Since joining the Rose-Hulman faculty in 1983, he has been active in developing undergraduate and graduate courses and laboratories for the optical en- gineering educational program. He has directed 23 completed master’s degree thesis projects, consulted with industry, and is co-inventor on two patents. In 2000, he received the Rose-Hulman Board of Trustees Outstanding Scholar Award. His research and technical interests include development of optics-based products, fiber optics, optical instruments, and systems engineering.Dr. Thomas W. Mason, Rose-Hulman Institute of
, positive reinforcement, and additional help on project tasks,which may be construed as transformational in nature. When compared to more tangible rewardofferings in a professional setting such as promotions, bonuses, and additional vacation time, thefact that contingent reward behaviors load quite strongly with the MLQ’s transformationalbehaviors is not surprising. This conceptual understanding of the leadership phenomenon,corroborated by early works in the theory indicate that this scale may be measuring leadershipbehaviors consistent with the experiences of student mechanical engineers in a capstone setting.Next, the passive-avoidant/laissez-faire scale developed departs from the current construct of theMLQ Form 5X but is consistent with
Three elective junior courses, (e.g. PH 382U, BI 372U and ECE 383U,) from a single cluster, (e.g. Science & Liberal Arts or Design Thinking/Innovation/Entrepreneurship,) which includes courses from multiple departments, grouped around a single theme. An integrating two-quarter senior capstone experience, including some form of community service. (In engineering, this requirement is satisfied by the traditional capstone design project, performed in groups with participation and supervision by local industry. A future goal is the introduction of nanotechnology capstone projects which will integrate non-STE “graduates” of the nanotechnology courses into some of these industrial projects.)The four
society?” [the socio-technical aspect]; “A lot of the previous EMSE stuff has beenvery technical technical” [previous work emphasizes technical elements]; and “…this really nice pre-design senior capstone project where we have a lot of intellectual freedom” [pre-senior design]. We hopethe implications of teaching critical thinking in engineering judgment presented in this paper will sparkthe integration of critical thinking into other engineering curricula.IntroductionCritical thinking is central to engineering education, yet it does not have a single agreed operationaldefinition in engineering education. One useful definition described by Ahern et al (2019) quotingFacione (1990) is: “[critical thinking] is a ‘purposeful, self-regulatory judgment