project which involvesimplementing a digital badging system through students’ participation in makerspaces andcollecting both qualitative and quantitative data to assess its impact on students’ participation inmaking and makerspace activities and thus their engineering identity development and sense ofbelonging in engineering, acknowledging that gender, race, and ethnicity affect their engineeringidentity [3].Makerspaces are community-focused spaces that derive their purpose and meaning from thepeople utilizing the space. Definitions of makerspaces and related spaces (i.e., hackerspaces, fablabs) vary, but often include a focus on design, creativity, and access to fabrication tools [4]. VanHolm defined these spaces as “characterized as a
revitalizing these cities.The Center for Civic Innovation at the University of Notre Dame (UND) piloted a programleveraging what we know about STEM engagement, project-based learning (PBL), academiccommunity engagement, and asset-based community development [3-12] with federal support(NSF IUSE Exploration and Design Tier for Engaged Student Learning & Institution andCommunity Transformation). Through examination and refinement, researchers developed theCommunity-Engaged Educational Ecosystem Model (C-EEEM, pronounced ‘seam’) [1, 4, 13].The C-EEEM pilot contributed to our understanding of how to build learning environments thatsupport 1) improvements in student motivation and retention in STEM; 2) changes in placeattachment for participants; and 3
threat in the field. This IUSE project focuses on the development,implementation, and evaluation of the impact of a unique storytelling intervention to enhance theself-view of undergraduate engineering students. It explores how telling personal narrativesabout oneself affects students' engineering professional identity, sense of belonging, andpersistence in the major. Collaborating with the non-profit organization The Story Collider andfunded by an NSF grant (award #2142137), the research uses a design-based mixed-methodsapproach to investigate the impact of storytelling on undergraduate engineering students.Incorporated into engineering courses, this intervention targets students during their sophomoreyear with the goal to develop and refine
workforce – particularlyworkers with STEM skills. STEM-related jobs, which generally have higher wages and growth[2] are important to stabilizing and rebuilding their communities in the Digital Age. Yet, theseareas also tend to have higher percentages of those underrepresented in STEM, including lowsocio-economic status (LSES) and underrepresented minorities (URM). Engagement andretention in STEM disciplines is of national importance, but for these regions it is critical tocompeting in the knowledge economy and revitalizing these cities.The Center for Civic Innovation at the University of Notre Dame (UND) piloted a programleveraging what we know about STEM engagement, project-based learning (PBL), academiccommunity engagement, and asset-based
Engineering, an ABET-accredited project-based engineering education program of Minnesota State University, Mankato. She enjoys helping student engineers develop entrepreDr. Yuezhou Wang, Minnesota State University, Mankato Dr. Yuezhou Wang is an associate professor in both Iron Range Engineering and Twin Cities Engineering programs. His leading teaching competencies are in areas of materials science, structural analysis, finite element modeling and dynamic systems. He has a broad range of research interests. His technical research focuses on multiscale modeling on mechanical behavior of nanofibers and carbon nanotube materials. In the area of pedagogical research, he is interested in using learning analytics tools to
, where she taught introductory courses and co-directed the NSF-sponsored Young Scholars Program. Her most recent service to the University began in 2001, when she began teaching in the EET Program. Her technical courses include Digital Systems, Programmable Logic Controllers, and DC/AC Circuit Analysis, but her strength lies in teaching the more humanistic side of engineering in Introduction to EET and Project Management. Her student evaluations earned her the University of Maine’s Presidential Outstanding Teacher of the Year Award in 2010 and the College of Engineering’s Early Career Teaching Award in 1995. Prior to 2001, Judith held several engineering and project management positions throughout Maine, including
Applied Science and Technology at the Rochester Institute of Technology. Fred has developed and taught graduate courses in Applied Research Methods, Engineering Economy, Quality Engineering, Statistical Quality Control, Quality Systems, Design of Experiments, Manufacturing Strategies, and Project Management. He also developed and taught undergraduate courses Quality, Industrial Statistics, Statistical Quality Control, Cost Analysis and Control, Human Resource Management, Project Management, and Technical Writing. Fred’s research agenda is focused on enhancing the competitiveness of manufacturers. In support of his research agenda, Fred has written nearly 40 refereed articles published in national and international
responsible citizenship and an understanding of ethicalchoices inherent in human development.The Charles W. Davidson College of Engineering is ranked 12th among engineering programsfor master’s-level institutions in the 2009 edition of "America’s Best Colleges" by U.S. News &World Report. Close ties with Silicon Valley industry provide access to scholarships, internships,research projects, and employment for engineering students. Page 22.255.2SJSU ranks comparatively low against similar universities in terms of six-year graduation rates.The first-year retention rate is 81% and the six-year graduation rate is 46.4% which is lower thancomparable CSU
Purdue University’s ADVANCE program, and PI on the Assessing Sustainability Knowledge project. She runs the Research in Feminist Engineering (RIFE) group, whose projects are described at the group’s website, http://feministengineering.org/. She is interested in creating new models for thinking about gender and race in the context of engineering education. She was recently awarded a CAREER grant for the project, ”Learning from Small Numbers: Using personal narratives by underrepresented undergraduate students to promote institutional change in engineering education.” Page 22.356.1
students to the introduction ofSimulation into the Engineering Technology programs, the department has decided to take thesame measure in other higher level courses such as Heat Transfer II, Turbomachinery and SpaceTechnology.In the graduate level, a number of students have selected the application of simulationtechniques for their final projects. Contractual agreements have been made with the Air ForceResearch Laboratory (AFRL) at Rome, N.Y., for SUNYIT students to participate in some of thesimulation projects in their state-of-the-art laboratories. The area of interest is MEMS (MicroElectro-Mechanical Systems) and the software selected for use are MEMCAD 4.0 and IDEAS
. Additional laboratories described include a Spacecraft AttitudeDynamics and Control Simulator, and a “design, build, and fly” project to be launched in late 2001.Topics in AstronauticsSome topics in aerospace engineering, such as structures, are common to both aeronautics andastronautics, so that related laboratories benefit both parts of the curriculum. There are howeversome space-specific topics that typically have no laboratory component, primarily related to themotion of spacecraft. Satellite motion is a complicated combination of the orbital motion of thesatellite around the earth and the attitude, or pointing, motion of the satellite platform. The overallmotion is affected by gravity, controlled thrusters, material outgassing, motion of
potential students, and better orientationprocedures. The college started building active relationships with secondary school teachers byworking with high school educators’ associations, and by offering free workshops and seminarsfor high school educators on high-tech teaching issues. Industry Connection - External SupportThe Technology Transfer and Utilization Center (TTUC) officially opened in 1993. The TTUCserves as a gateway for industry access to the resources of the college. Small to mid-sizedcompanies obtain expert advice on issues related to production technologies, productdevelopment or improvement, and enhanced business performance. Senior students, under thesupervision of faculty, work on projects to aid such
Public Affairs for Engineers is another successfullyinstitutionalized program at CSM which took quite a different route to its current state. Thisprogram is a 27 semester-hour sequence of seminars and off-campus activities with the primarygoal of providing a select number of engineering students the opportunity to cross the boundariesof their technical expertise and to gain the sensitivity to prove, project, and test the moral andsocial implications of their future professional judgments and activities, not only for theparticular organizations with which they will be involved, but also for the nation and, indeed, theworld. To achieve this goal, the program brings themes from the humanities and social sciencesinto the engineering curriculum that
years to address specific career goals. The implementation of implicit curricular “threads” (i.e. coverage of topics via coordinated portions of courses throughout the four-year program, as opposed to coverage in a separate course). - written, oral and visual technical communications; - engineering problem solving through computing; - engineering ethics; - teamwork and team leadership; - randomness and uncertainty; - environmental impacts and issues. Increased use of teamwork in courses: five of the ten required courses inside the Aerospace department are to be based on team projects and team grades. A
into the matrix, the matrix iscompleted by entering the level of learning associated with each (competency, activity) pair.Thus is Figure 1, the quizzes represent a Knowledge level of learning activity for the variousdesign process sub-objectives while the project work serves as a Comprehension and Applicationlevel of learning activity. When you look at Figure 1 you notice that many of the possible(competency, activity) pairs are blank, which makes sense, since any individual learning activityrarely, if ever, impacts on all of the course learning objectives.Tyler’s third question (how to organize the learning activities) is answered, at least partially, bystudying the articulation matrix. Since it is assumed that the levels of learning are
to give Baylor University studentsa foundation upon which to build an informed understanding of complex energy issues. Withunderstanding comes the ability to begin answering the questions confronting society.Specifically, the four learning objectives are:1) To develop scientific energy literacy;2) To closely examine the production and consumption of energy in both developed and developing countries;3) To examine the social, political, environmental and ethical problems of an energy-dependent civilization.4) Understand, hypothesize, propose and execute a research project in the theme, “The campus as an energy-efficiency and alternative-energy laboratory.”The four semesters for Energy and Society ELG followed the learning
to include at theend of the placement loomed large. Anticipating bringing artifacts back from the experience wasilluminating and proves to be common among other students, but proprietary and intellectualproperty issues are raised for Co-op.Two portfolio orientation workshops were offered at the end of the spring quarter to all studentsgoing out on Co-op placements for the summer. A total of 19 students attended the one-hoursessions. They were offered the option of submitting a portfolio at the end of their placements.Most students had no intention of this being a completed project at the point when we partedcompany. As we write this paper, not everyone is finished with their Co-op position; some arejust returning now and some of the graduate
College ofLetters and Sciences. The assessment of the ability of SOET students to communicate effectivelyin writing is most often done through an analysis of the formal documentation accompanyingend-of-program capstone projects (undergraduates) or master’s projects and theses. Data in someprograms have shown an increase in the length of time required for students to complete theseend-of-program projects, many times as a result to needing additional time to correct and polishwritten documentation. Other anecdotal evidence across many SOET programs indicates thatstudents reaching these capstone and master’s projects are frequently not fully prepared toprofessionally document their results in writing. Due to the importance of writtencommunication
AC 2010-2222: A QUALITY MODEL OF OPENCOURSEWARE APPLIED TOENGINEERING COURSESEdmundo Tovar, Polytechnic University, MontegancedoNelson Piedra, Universidad Tecnica Particular de LojaManuel Castro, Universidad Nacional de Educacion a DistanciaMartin Llamas, Universidad de Vigo Page 15.80.1© American Society for Engineering Education, 2010 A Quality model of OpenCourseWare applied to Engineering coursesAbstractThe OpenCourseWare (OCW) project started at the Massachusetts Institute ofTechnology (MIT), in the year 2001, with the aim of offering pedagogical materials inan open and free of charge basis to society. The main objective of this
leadership the college has increased the number of students studying abroad, established new models of study abroad including co-op and research abroad and established meaningful connection for research and attraction of funded international graduate students. Maria started working at Texas A&M in 2005 as Assistant Director for Latin American Programs and in 2009 she was promoted to Program Manager for South America in the same office. During her time at the Office for Latin America Programs she created, managed and developed projects to enhance the presence of Texas A&M University in Latin American and to support in the internationalization of the education, research, and outreach projects of the university. She
teamwork and collaboration4.Since all of the EDC design projects are actual design problems with real clients and users, thecourse also addresses the “relevance” condition of the ARCS model. Students consult withclients to define the project goals, meet with users to get feedback on different design ideas, andultimately create solutions (often working prototypes) that are given to the client to beimplemented and used. Through these authentic design activities students see first-hand theimpact of their design solutions, and the relevance of their work in a broader context. In Keller’sdiscussion of relevance he poses the question, “How many times have we heard students ask,‘Why do I have to study this?’” (p. 3). We do not hear this question in
developed through oneof the projects of the Center for Information Technology and Community Development(CITCD) at the College of Applied Science.7 It was first created to supplement theoperation of the walk-in learning center after realizing that more students are utilizing thewireless network of the university and are doing their projects and homework away fromthe department labs. The idea behind this application was to provide a tool for students tofind assistance and help even if they are doing their work outside department labs.The walk-in learning center (Programming Learning Center or PLC)8 is staffed by juniorand senior students and is available to assist students in their programming projectsand/or homework. However, students have to
behavior, and 3) the difficulty of engaging in the activity.We have implemented an outreach project that is directed at all of the factors described above tohelp recruit non-traditional students into engineering and engineering technology careers. We areshowing high school students that engineering can be fun, engaging, and possible for themthrough high school clubs and competitions, affecting their perceived behavioral control. We areinforming them about careers, job outlooks, and college programs, thus affecting their attitudes.Moreover, we are meeting with parents, teachers, and counselors to educate the community onthe opportunities available to these students, affecting the subjective norm for these students. Webelieve that all of these
; Exposition Copyright © 2005, American Society for Engineering EducationThere are many commonalities in the missions for the three programs in EngineeringTechnology: Mechanical, Manufacturing and Civil. Each program prepares graduates forprofessional careers as engineering technologists. The students acquire a knowledge base inmathematics, physical sciences, mechanics, fluids, manufacturing or construction processes,materials, testing, engineering design, computer-aided engineering graphics, computerprogramming, engineering standards, project planning and cost analysis. The students developwriting, communication, engineering problem solving and teamwork skills applicable to design,testing and fabrication of components
Implementing Self-Directed Problem Based Learning in a Multidisciplinary Environmental Engineering Capstone Class Kevin C. Bower and Kenneth P. Brannan Department of Civil and Environmental Engineering The CitadelAbstractThe Department of Civil and Environmental Engineering at The Citadel offers three differentcapstone classes during the second semester senior year. In an effort to meet ABET 2004-2005Criteria for Accrediting Engineering Programs Criterion 3(d) requiring students to work in multi-disciplinary teams, the department has developed an artificial project that incorporates a “real-world” feel and integrates the three disciplines
. Even on-line, animated testingsoftware does not test the ability of a student to see a project through from beginning to end.Thus, we need to be able to integrate grade data from a variety of sources, including email fromteaching assistants.Successful users of CMSs often have small courses or courses that employ standardized testingand do not have significant project components. In some cases they have been able to developtheir own application software either for enhancing an existing CMS or they have created theirown CMS. Enhancing a CMS would be time consuming and the programs developed to this endwould require maintenance over time, which we have already noted is costly and time-consuming.The continuing development of innovative tools to
) 30-hour training course. This training course isbecoming a requirement in construction related projects from the clients and employers.Therefore, more construction/engineering firms require their employees to obtain this OSHAsafety training course shortly have starting their employment. Hence, the SDCET studentresume has another unique feature when being reviewed by a potential employer. The credentialis rarely listed on a college student resumeThis course has resulted in an excellent relationship with various professionals, society, and theprogram’s success in preparing its students. Incorporating a safety course in the curriculum, is anexcellent example of a win-win relationship for both the program, the students and the
and close book.reports and oral presentations, and divide group projects into manageable tasks to • LMs can provide targeted training, mentorship, or opportunities for growth to enhance technical skills within 2. LMs watch module videos andmeet deadlines. Thus, the topics of conflict management, design of assessments, throughout semester practice
later became a base system for the first com- mercialized CDMA (2G) system in the world. His doctoral research at Wayne State University was the development of self-adaptive AI frameworks motivated by cultural evolution processes, which was then applied to solve various problems such as optimizing neural networks and 2D & 3D target shape opti- mization. He launched numerous world-wide STEM+CS/AI programs including Robofest, RoboParade, Vision Centric Challenge, RoboArts, and MathDance. He also mentored college robotics teams for IGVC, RoboCup soccer, and World Robot Olympiad. In 2011, IEEE honored Dr. Chung with its citation of honor award for his leadership in STEM education. His current projects using drive-by
which all engineering freshmen work on real design projects for real clients.Prof. Adam GoodmanMs. Koshonna Brown, Northwestern University Center for Leadership Koshonna Brown is a Life Science doctoral student at Northwestern University. As a fellow with North- western University’s Center for Leadership, she analyzes the date collected through the Center’s online assessment tools. Such assessments allow students and faculty to reflect and develop their own leadership and apply lessons and insights gained to current leadership challenges and positions. Page 24.1048.1 c American