mentor and to procreate thenecessary ingredients for success), while staying on the cutting edge of industry needs throughvarious professional development activities, such as summer internships in industry, continuingeducation and research projects sponsored by industry.III. A Model That Produces Results:Identified need + Academia + Industry = Results Academia Identified Need Results IndustryWhere results for academia include: faculty "in tune" with industry needs through on-sitefellowships, graduates prepared to meet industry's needs, resources for new or upgraded labs andcurriculum enhancement, funded applied research
, November 5-8, 19973. Karl A. Smith, "Design of an Introductory Engineering Course," Proc. Frontiers in Education ’96, SaltLake City, Utah, November 6-9, 19964. Craig James Gunn, "Design in the Freshman Engineering Curriculum," Proceedings of the 1997 ASEEAnnual Conference and Exposition, Milwaukee, Wisconsin, June 15-18, 19975. Frank Milillo, Richard Shanebrook, Frank Wicks, "Construction of a Newcomen Engine as a FreshmanEngineering Project," Presented in Session 3233 of the 1999 ASEE Annual Conference and Exposition,Charlotte, North Carolina, June 20-23, 19996. F. Andrew Wolfe, Christine C. Laplante, "Bridge to the Future: the Freshmen Capstone Design BridgeProject at Union College," Proceedings of the 1999 ASEE Annual Conference and Exposition
√ Figure 1 Example Completed Page from the Survey Experience and Present Responsibilities of the Questionnaire Respondent Before returning the attached questionnaire, please answer the following questions MANAGEMENT U Yes U No U Program or Project Management U Product Development U Functional/Specialty Department INVOLVED IN HIRING NEW GRADUATES & PERFORMANCE EVALUATIONS U Yes U No TEAM
1.22 present your experimental work in a written laboratory report format. After taking this course 4.00 0.60ECE 491 Senior Design Project IECE 491 is the first course in the three-quarter capstone sequence. Students spend the bulk of thefall quarter finding a design project, other students to work with, and a project advisor. Writingassignments for fall are a one-page pre-proposal, and a 10-page proposal (exclusive ofappendices). More course details can be seen on the course web page11.Three WITs participated in Senior Design, with majors of Technical Communications,Biomedical Engineering and Physics. The Technical Communication major was extremelyinterested in the topic, and saw sitting in all the lectures as
problem solving.Curricular breadth is provided through study in Strategic Sectors that reflect national criticaltechnologies; these include Biotechnology, Energy, Engineering and Manufacturing,Environment, Information and Knowledge Management, Health Systems, andTelecommunications. Depth is provided through studies in an area of concentration and througha capstone senior project. Permeating the entire curriculum are information technology, thesystems approach and laboratory experiences. The course sequence blends theory with hands-onpractice in such areas as electron microscopy, computer-integrated manufacturing, multimediaproduction, lasers and optics, and environmental field studies.The structure of the program is shown on Figure 1. The ISAT
subject of greatinterest to many mechanical engineering students, the author uses many automotive relatedexamples in discussions, assignments, and projects to great advantage in securing andmaintaining students’ interest.A senior-level automotive systems design course as well as other synergistic activities have beendeveloped at Tuskegee University to harness student interest in automobiles. The main goal ofthe course is to introduce engineering concepts, principles of operation, and designconsiderations in a framework with which students are familiar and have above average interest.This situation-approach to engineering education means that the learning process is at the outsetgiven a setting of reality1. Lindeman1 states that the resource of
engineering arestarting to be explored,2 studies on the effect of K-12 engineering programs on university successremain limited.Numerous venues exist for exposure to engineering prior to matriculation in a collegeengineering program. Elementary engineering programs such as Engineering is Elementary aimto reinforce students understanding of mathematics and science via simple engineering designprojects.3 Students can further explore engineering concepts in middle school classes, and studydiscipline-specific content or complete a capstone design project as part of a high school class orcurriculum like those developed by Project Lead The Way4 or the International Technology andEngineering Educators Association.5 Outside of a formal class setting
drinking water. Each group evaluated a water sample usingdiffering amounts of a coagulation mixture followed by differing depths for the filtrationprocess. The students shared their data, subsequently creating plots that were then evaluatedto find the optimum values for the two processes. They were also asked to expand theirfindings to encompass a full scale water treatment plant and calculate the required amounts ofchemicals and resources.After the students completed the lab analysis using Excel, they were given instruction on howto generate a well-written engineering report. These were group lab reports, so time was alsospent discussing how to share efforts and work together. The senior capstone design classesat USA require group reports, so
students a 2-semester, zero-credit, shared, online entrepreneurship coursehosted by UCF that culminates in a team project proposal and Symposium presentation (zero-creditcourses will not extend time to graduation). Pathway experiences will enhance the sense of the learningcommunity, encourage students to persist in their academics, help them with their capstone efforts and assuch are not expected to increase graduation time.Annual pathway experiences culminate at an end-of-spring semester, joint UCF/FIU/USF Flit-GAPSymposium that rotate annually amongst the 3 participating institutions with students attending the eventin person at their ‘host’ institution and virtually at the other two institutions. The Symposium is a holistic,all-day event that
exposed to concepts fundamental toboth music and engineering, emphasizing the interconnectedness of the disciplines, with alearning goal of (re)awakening the students’ creativity. The final semester project consisted ofcreating and presenting a musical composition. Students worked in teams of two or three, underthe requirement that each team include at least one music major and one engineering major.Figure 1 presents the specific student learning outcomes for both versions of K-State’s Signals,Systems and Music course, and Fig. 2 provides a brief look at the course content. Johnston’sMeasured Tones,1 a delightful book understandable by both the STEM student and the musicmajor, provided readings from which in-class discussions and elaboration of
provide betterunderstanding of the process capabilities and mechanical properties of the MS 300 produced by DMLS-HM for mold industry application. Keywords: Capstone, Undergraduate Design, Additive Manufacturing, Undergraduate Research 1. IntroductionAdditive Manufacturing (AM) is defined by ASTM as the “process of joining materials to make objectsfrom 3D model data usually layer upon layer, as opposed to subtractive manufacturing technologiessuch as traditional machining” (ASTM 2012). Initially, the mission of this innovative technology was tobuild prototypes quickly for modeling and testing purposes, but the technology advanced quickly, andapplications have widened into mold industry, medical, sculpture, architecture, manufacturing
Department of Physics has introducedPC-based video analysis as a means of enhancing both our interactive lecture curriculum and ourintroductory physics laboratory program. The impetus to implement video analysis focused on three keycapabilities; the capability to analyze physical phenomena which are more familiar to cadets, thecapability to create educational links between the classroom and the dorm room, and the capability tofacilitate a more interactive classroom.Method In the Fall of 2006, video analysis was introduced as a capstone laboratory project for the NewtonianMechanics course. Based on the feedback from this initial implementation, video analysis was used fortwo separate laboratories in the Fall 2007 Newtonian Mechanics course and
Department of Physics has introducedPC-based video analysis as a means of enhancing both our interactive lecture curriculum and ourintroductory physics laboratory program. The impetus to implement video analysis focused on three keycapabilities; the capability to analyze physical phenomena which are more familiar to cadets, thecapability to create educational links between the classroom and the dorm room, and the capability tofacilitate a more interactive classroom.Method In the Fall of 2006, video analysis was introduced as a capstone laboratory project for the NewtonianMechanics course. Based on the feedback from this initial implementation, video analysis was used fortwo separate laboratories in the Fall 2007 Newtonian Mechanics course and
Susan Woodard Roger Williams University Roger Williams University Roger Williams University Bristol, RI, United States Bristol, RI, United States Bristol, RI, United StatesAbstract—The team at Roger Williams University is working increase wind speed. This increase in speed is generated bywith CBC LLC creating a new design for a horizontal axis wind using eight wing shaped stationary stators that direct the airturbine known as HIPS WECS as a senior capstone project. This into the center of the 30 foot diameter housing structure. Thisnew turbine is designed to fit into an urban environment where a 30 foot
). From the COMETS collaboration stemmed the Capstone Design Project,which provided the opportunity to participate in a year-long senior design project at SanFrancisco State University to four current community college students.The civil engineering student Abbyanna Davis was selected to help on this research through thisinternship the student was able to work with simulations and allowed her to put the knowledgeshe has acquired through her academic pursuits to test, as well as acquire new knowledge such asthe use of MatLab Simulink in order to simulate the fluid viscous dampers and the ability to giveher an experience of upper division course work and research. Three main tasks include inputtingthe data, running simulations and analyzing the
capstone projects, etc. Some of recent reforms urged nationally such as emphasis inteamwork, communication skills, and interdisciplinary design have been integrated throughoutthe curricula. Furthermore, a close partnership has been developed between LCOE and LylesCenter for Innovation and Entrepreneurship (LCIE) to promote entrepreneurial endeavors withinvarious disciplines. Four full time faculty members in Civil Engineering, ConstructionManagement, Electrical Engineering and Mechanical Engineering, have been awarded thedesignation of the Coleman Entrepreneurship Fellows. The Coleman Fellows are engaged indeveloping either new courses in their disciplines related to entrepreneurship and/or revisingexisting courses to integrate entrepreneurship
senior-level Professional Issues in Civil Engineering course was taught for the firsttime in fall 2015. The course is intended to address the new ABET program specific criteria forcivil engineering to “raise the bar” on ethics instruction. The course is also intended to helpstudents understand the importance of sustainable design and the impacts of engineering onsociety. One of the methods used to teach students about these issues included a structuredcontroversy on a proposed new water resources project in Colorado. There was also an extensivecase study analysis of Hurricane Katrina and New Orleans that spanned four weeks of the course,two lengthy written assignments, and in-class discussions. This included a discussion of thesocial justice
AC 2011-1720: THE 2011 STATE OF MANUFACTURING EDUCATIONHugh Jack, Grand Valley State University Professor of Product Design and Manufacturing Engineering. His interests include Automation, Robotics, Project Management, and Design. Most recently he was part of the team that developed the Curriculum 2015 report. Page 22.1426.1 c American Society for Engineering Education, 2011 The 2011 State of Manufacturing EducationAbstractThe paper complements the work of other groups and professionals, all trying to assess the statusof manufacturing education. To this end the paper
education. She was awarded a CAREER grant from NSF to study expert teaching practices in capstone design courses na- tionwide, and is co-PI on several NSF grants to explore gender in engineering, design education, and interdisciplinary collaboration in engineering design.Jacob Preston Moore, Virginia Tech Jacob Moore is a PhD candidate in the Engineering Education PhD program at Virginia Tech. His re- search interests include developing better digital textbooks for engineering and using Rapid Prototyping in education.Deirdre Annaliese Nicole Hunter, Virginia Tech Deirdre Hunter is a doctoral student in the Department of Engineering Education at Virginia Tech.She has a B.S. in Mechanical Engineering from Syracuse
oftenspanned more than one of the above cited subcategories.The Teaching and Learning category captures any instructional intervention designed to improvestudent educational outcomes. More interventions were coded to this subcategory (57.3% of allinterventions) than any other subcategory (see Table 2.a). Aside from “Other,” which contains Page 11.496.5118 discrete interventions, the most common teaching- and learning-related interventions were:teams (17.3% of all articles), collaborative/cooperative learning (16.9% of all articles), lecture(traditional) (13.0% of all articles), projects (11.4% of all articles), active learning (10.4% of allarticles
increased awareness ofparticipants’ own lives and actions, and have the potential to “disrupt the everyday practices ofparticipants through enforcing an awareness and visibility of action previously absent” (p. 35)39.MethodsIn this section, we describe the Articulating a Succinct Description method. While we provide abrief overview of the initial ethnographic research that launched the ACC project, for thepurposes of this paper we will be focusing on the participants, data analysis, case study creation,and cultural probe intervention from the preliminary study that was conducted in Fall 2016.ParticipantsOver 565 students have been involved with the Advancing Cultural Change (ACC) projectthrough assignments in an introductory cultural anthropology
interactions • Senior design project - The hallmark of the engineering curriculum at Seattle University is our senior design (capstone) project, an academic year-long design project sponsored by local industry, government agencies, or nonprofit organizations. The Project Center at Seattle University interfaces with sponsors to find real-world assignments for design teams typically comprised of 4 students and supported by a faculty advisor, an industry liaison, and a department project coordinator. Over the course of the academic year, teams are responsible for both technical aspects of the project including designing, building, and testing a prototype (if applicable), and project management
accredited programare well equipped for industry. Open-ended problems solved in a group setting have the ability tosatisfy many ABET outcomes at once, most notably outcomes one, two and five. The firstoutcome, “an ability to formulate, and solve complex engineering problems,” students don’tusually engage in until their capstone design course, although an OEMP will expose students tocomplex engineering problems that are solvable with their level of engineering and appliedphysics knowledge. The second ABET outcome, “an ability to apply engineering design toproduce solutions that meet specified needs” including socio technical factors, is difficult tofulfill with closed ended problems, because there is no one correct solution for any engineeringproblem
the ways in which this identity is influenced by stu- dents’ academic relationships, events, and experiences. Dr. Groen holds B.S. and M.S. degrees in Civil Engineering from the South Dakota School of Mines & Technology.Dr. Lisa D. McNair, Virginia Tech Lisa D. McNair is a Professor of Engineering Education at Virginia Tech, where she also serves as Director of the Center for Research in SEAD Education at the Institute for Creativity, Arts, and Technology (ICAT). Her research interests include interdisciplinary collaboration, design education, communication studies, identity theory and reflective practice. Projects supported by the National Science Foundation include exploring disciplines as cultures
Information Technology (NCWIT). His past experiences include having been a middle school science teacher, Director of Academic and Instructional Support for the Arizona Department of Education, a research scientist for the Center for Research on Education in Science, Mathematics, Engineering and Technology (CRESMET), and an evaluator for several NSF projects. His first research strand concentrates on the relationship between educational policy and STEM education. His second research strand focuses on studying STEM classroom interactions and subsequent effects on student understanding. He is a co- developer of the Reformed Teaching Observation Protocol (RTOP) and his work has been cited more than 1800 times and his
Innovation CenterOur university currently has several spaces that support making, including workshops thatsupport our theater program, art studios, and engineering and technology shop spaces. Thesespaces support independent student projects, class projects, capstone design projects, studentorganization projects, and research projects.These spaces are well used and professionally operated. Students receive safety training and areable to use the spaces for free. Gaps in our existing makerspaces include: 1 • a lack of tie-in to our entrepreneurship program; • insufficient space to support the amount of work needed to be carried out
manufacturing. The challenge for MFS online lies in successfullyreproducing the learning experiences that arise during face-to-face teamwork activities andinteractive projects. This means moving the MFS online involves creating online equivalents forsignificant interactive team work and activities ranging from laboratory experiments on differentmanufacturing processes, team-based product design with physical products/in softwareplatforms and their assessment to simulating manufacturing system and supply chain operations.To help students master the complex technical concepts and skills and to give them a foundationin creativity and teamwork, these interactive aspects of the coursework are critical. The goal of the MFS degree program at the
practices, they need opportunities to developownership of these practices by coming up with their own ways to solve problems, posing theirown questions, and developing their own conclusions [22]. In engineering, in particular, theyneed opportunities to have ownership over the design problem; although posed by a customer orclient, design problems are framed by the designer [23], leading to a sense of agency [24] andownership [25].Interest can drive a sense of ownership over learning [26], which in turn can foster a mastery-oriented stance on learning [27] and help students make decisions about their futures [28]. Oneapproach to support ownership development is through the use of project-based instruction [29];creating artifacts that reflect learning
result related to the raceand gender and ignored other results of papers.CollaborationThree papers were about the mode of collaboration [20], [21], [23]. Flynn et al. [20]investigated the effect of mode of collaboration on female students while working in teams.The authors studied two different engineering teams working on the capstone project. Oneteam consisted of two men and two women. The mode of collaboration in this team wasdialogic. Another team consisted of two women and three men and the mode of collaborationhad the characteristics of dialogic, asymmetrical and hierarchical modes. In the first team,female students were treated equally with men and there was no major conflict among teammembers. But, in the second team, female students
) program. The project’s overall aim is to support aculture of pedagogical risk-taking and realize an additive innovation mindset to promote faculty-teaching innovations at a large, southwestern public university. A specific research sub-goal ofthe project is to further understand how faculty development programs and initiatives caninfluence faculty-teaching practices. A modified version of the Business Model Canvas (BMC)[1] is employed to document the emergent activities of innovation driven, self-formed facultygroups over time. The Business Model Canvas is an organizational tool for capturing andcommunicating the critical elements of an evolving project’s ecosystem. Borrowed fromentrepreneurship practices, it is used to identify the necessary