Study 4 and Study 5 into a singleprotocol. See below.Study 5: Frame-of-reference training makes participants better team membersPurpose of study: This study explores the effect of cognitive model development (measured by aknowledge test as in Study 2) on team performance and team-member effectiveness. Trainingmembers of teams to develop a more accurate cognitive model of teamwork should increaseteam performance, team cohesion, team self-efficacy, and satisfaction, and reduce team conflict.Status of study: Participants were recruited to the experimental and control groups at UNCCharlotte and Purdue University for lab studies, and the results of that work are being published.A significant research protocol was designed, developed, and launched at
have formeda collaboration to develop a new vision of engineering education called the CDIO Approach(www.cdio.org).3 CDIO is designed to deliver the knowledge and skills needed by industry. Itprovides an education stressing engineering fundamentals, set in the context of the Conceiving,Designing, Implementing, and Operating process. The goals of the CDIO approach are toeducate students who are able to: ≠ Master a deeper working knowledge of the technical fundamentals ≠ Lead in the creation and operation of new products, processes, and systems ≠ Understand the importance and strategic impact of research and technological development on societyThe CDIO approach identifies and implements 12 Standards of Effective Practice
of student experiences within aFIG and its impact on both persistence and academic achievement, questions still remainregarding persistence of various subgroups of students. Given the high attrition rate and declinein enrollment of engineering students, the researchers are particularly interested in the impact ofengineering-focused FIGs on academic success, retention, and graduation of students initiallyinterested in the field of study.This concern with freshmen interest groups (FIGs) for engineering students complements themore general concern of how to increase the quality of undergraduate education and studentretention. In the late eighties, Chickering and Gamson neatly outlined “seven principles of goodpractice in undergraduate education
consciously and actively fosters and rewards creativity. Architecture studentsprioritize innovation and continuously engage in creative thinking while keeping an eyeon the big picture: the cultural significance and ultimate aims of the “program” inrelationship to the cultural and environmental context of the project. Students areexposed to the best examples of creative endeavor and cutting-edge design practice andtaught the history of their field. Throughout their education, students are exposed to arange of approaches and methodologies for problem-solving design, helping to providethe understanding the no one approach is paramount. Architecture students however,often lack the technical skills and expertise of their engineering peers because they
Interdisciplinary Journal of Study Abroad. Vol. X. 2004.[15] DiBiasio, D., N.A. Mello, and D. Woods, (April, 2000). Multidisciplinary Teamwork: Academic Practices and Assessment of Student Outcomes. Paper presented at Best Assessment Processes III Conference, Rose-Hulman University, Terre Haute, IN.[16] Besterfield-Sacre, M., L.J. Shuman, H. Wolfe, C.J. Atman, J. McGourty, R.L. Miller, B.M. Olds, and G.M. Rogers, (2000). Defining the Outcomes: A Framework for EC 2000. IEEE Transactions on Education 43 (2), 100-110.[17] DiBiasio, D., & Jiusto, S "Experiential Learning Environments: Do They Prepare Our Students to be Self- Directed, Life-Long Learners?" 2006. JEE, 95 (3), pp. 195-204
assignments.As one scholarship recipient remarked, “ASDSO’s national conference was a great opportunityto attend seminars and view in greater depth the real-life aspects of engineering. One of themore interesting aspects of ASDSO’s conference (as opposed to other engineering conferences)was the emphasis placed on the communities impacted by dams. Civil engineering is a relativelypeople-oriented field to begin with, but ASDSO interacts with the public in nearly every aspectof dam construction, design, maintenance, and decommission.”Another noted, “As a student I was still unsure of my plans after graduation, but after attendingthe conference I felt that dam safety was the correct path for me. The scholarship helped to easethe burden of paying for college
is especially truein the first thermodynamics course which is theory heavy. The result is that many students haveexcessive difficulty with the subject and do not develop a "feel" for the topic or the associatedreal-world equipment2,3. Felder et al. have summarized this best by stating that without studentinterest or a belief in the need to learn the material, a course “stimulates neither interest normotivation to learn. The fact that many students in these courses appear apathetic and dopoorly…should not come as a surprise”.4The relevant educational research and literature is clear in the belief that greater student impact,understanding, and retention can only be achieved with greater student engagement5. Thisengagement must come by
experience at SCU was truly transformational. Ilearned the core principles of managing science, technology and entrepreneurship; lessons thatcontinue to serve me well each day.”Graduate B, “TSAT has played a tremendous role in my career decision and has been a majorstepping stone in adjusting to my current job. I am currently doing ECU development in theautomotive industry, and working on TSAT gave me the flexibility of learning more about theacademic side and the practical side of embedded systems”Graduate C: My senior project was good preparation for the "real-world." The experience ofgoing through the entire design process of developing a scope, working hard to make sure theproject is successful, and presenting the final product is similar to
a seminar, prediction of research trends, and identification of best practices for oralcommunication of one's research to specialists and technically astute laypersons. In order topromote reflection by students, graded reports were returned within 72 hours of the submissiondeadline.Thus, listening, comprehension, writing, and self-assessment abilities of graduate students wereimpacted by the restructured seminar course. Although a systematic analysis of grades was notperformed, the Seminar Coordinator noticed steady improvement in the writing skills of allgraduate students, whether from the US or international, and regardless of a student's nativelanguage.Further confirmation came from the results of an English Competency Test (ECT) that
., Gaff, J., Dienst, R., Wood, L. & Bavry, J. (1975). College professors and their impact on students. New York: Wiley-Interscience.5. See Antony, J.S. & Tayor, E. (2004). Theories and strategies of academic career socialization: Improving paths to the professoriate for black graduate students. In D.H. Wulff, A.E. Austin & Associates, Paths to the professoriate: Strategies for enriching the preparation of future faculty (pp. 92-114). San Francisco: Jossey-Bass; Austin, A. E. (2002). Preparing the Next Generation of Faculty: Graduate School as Socialization to the Academic Career. Journal of Higher Education 73(1); Boyle, P., & Boice, B. (1998). Best Practices for
. Enterprise implementation flow chartCredits taken for the Enterprise replace fifteen traditional credits; three credits of generaleducation, six credits of senior design, three credits of technical electives and three credits of freeelectives. Students who chose the Enterprise option graduate with one additional credit.Enterprise elective requirements can be satisfied through a diverse offering of modules. Topicsinclude engineering ethics, economics, industrial health and safety, design for manufacturing anda variety of additional subject matters.Enterprise Structure and OperationsThe Clean Snowmobile Enterprise design team of 20-30 students is divided into groups that areresponsible for specific areas of the snowmobile, to ensure an effective learning
that your programdevelops an assessment plan and procedures that are consistent with your resources, mission andobjectives. Also, autocratically creating a set of standard procedures and templates (even if theyare based on good research) and requiring the faculty to use them will likely result in resentmentand resistance rather than compliance. A better way to get faculty buy-in is to involve thefaculty in the process of defining the standard procedures that will be used by your department. Page 8.1027.2To get started it is usually best to standardize around existing best practices within the Proceedings of the 2003 American Society for
Integrating the Entrepreneurial Mindset as an Engineering Educator o Pedagogical and Professional Development Resources o Resistance and ChangeAt Baylor University, these seminars and workshops have become a part of the culture of theSchool of ECS. At the start of each semester faculty ask when the workshops will begin and lookforward to seeing their colleagues and discussion how to become better educators. One indicationof the impact of these workshops is that after the CATME workshop, the decision was made touse CATME in both the junior and senior design classes (Engineering Design I and II)Best Practices in Faculty Development: What Works? What Doesn’t Work?Many institutions have workshops for faculty development and much has
(1)Demographic Questions 11. Citizenship (foreign country other than the United States) (Yes/No) 12. Major department (educational foundations). (Drop Down/multiple choice) 13. Gender (Multiple choice/gender not listed:cis/trans)-(Gender Survey questions Best practices) 14. Institution type of previous degree (Carnegie Classifications)(Open-ended: Name of institution to be categorized by researcher)--check for a validated dropdown carnegie survey 15. Did you earn your bachelors and/or masters at the institution where you are currently pursuing your doctoral degree? (Yes/No) 16. Race/Ethnicity(Check Box/Not Listed:) 17. High school zip code (Open ended: Socioeconomic status to be inferred by researcher)(Weidman &
response tothe growing need by academic researchers, medical device and healthcare industries andregulators. These programs have been independently developed, housed in different departmentsor schools, and with curriculum content ranging anywhere from a general focus on a broadspectrum of regulated product, to a specific focus on one type of product technology. In 2010 arepresentative from the University of Southern California invited other representatives fromsixteen regulatory programs across the globe to come together and discuss issues of sharedconcern. This became the first international meeting for graduate regulatory programs aimed atfostering better communication among the variety of programs. Participants agreed to developand share best
, Business Practices, and AssetManagement which included multiple modules to demonstrate many of the professionaloutcomes. The offering of this course along side of the senior design allowed for thestudents to wrestle with the concepts using their senior design experience as the focus.The single course provided a rapid solution to properly demonstrate multiple outcomesthat do not naturally align with traditional technical courses. The experience has alsoenlightened the faculty to the possible use of modules to successfully level graduatestudents desiring an ABET accredited graduate degree without graduating from an ABETaccredited undergraduate program. Further refinement is required as the program movesforward with accreditation of its graduate
to help [23]. Students mustengage with the project from a perspective of blended boundaries that meaningfully engages withboth the facts and values of a project – values which must be considered from the perspectives ofall peoples. This view is not one traditionally held by engineering systems, which often embracetraditional power roles, making determinations on who is worthy of being served [8, 23-25].Best practices in curriculum design must include students questioning how different contexts andperspectives impact the boundaries of a system and its priorities [6, 7, 13, 14, 20, 22, 23, 25, 26].To evaluate these concepts properly, previous research has determined a significant gap adequatelycapturing students' attitudes [6, 7, 13, 14] and
. This design made it easy for students to take the contentlearned in the module and immediately utilize a real-world application for it, exercising theirnew knowledge on their own research data. Since the document was shared with the twoinstructors via Google Drive we were able to check in on the students’ understandingperiodically throughout the course and provide feedback via the “Comment” feature. We chosethis form of assessment because it allowed us to gauge student understanding in an organic waythat would seem relevant to the students, rather than quiz-style assessment that we feared wouldbe viewed as busy work.The second prong of our assessment plan is to measure the long-term impact of the course via anonline survey that we will send
than twice as likely to enroll in an ET program versus Engineering. Wesuspect it may be due to traditional Engineering programs’ requirement of higher levels of mathand science classes, often lacking in under-privileged or underserved urban or rural high schools.Recently published research by the New York Equity Coalition supports this supposition.Understanding the reasons for the higher representation of these students in ET can provideinsights on the background of these students for developing effective practices and programmingto improve retention of this cohort. It would also provide useful information for increasing thediversity of traditional engineering programs. This paper presents initial findings from a work inprogress that is part
conference entitled “Research and Engineering Education in a Global Society.”Participants identified best practices, discussed strategies, and formulated a declaration forachieving goals in engineering education and global research cooperation, with a view tobuilding a global society in the next century.5 Joining in this call for change was the NationalScience Foundation, which encouraged mutual and beneficial cooperation with other countries inits publication NSF Engineering: The Long View.6Universities in general have long supported the view that an international experience is avaluable part of education. However, such an experience is more difficult in a program of studyfor engineers than some other disciplines. Consider, for example, that 43% of
available and taken by those who hold Engineering degrees. ≠ What metrics should be developed to identify “star” faculty? For both undergraduate and graduate programs, we can do much more to identify best practices regarding education, research and the integration of research and education? Page 14.1377.107 M. Ohland et al., 2008, “Persistence, Engagement and Migration in Engineering Programs,” Journal ofEngineering Education. Panel 1b: Graduate studentsModerator Delcie Durham, Associate Provost and Dean of the Graduate School at University ofSouth Florida, Deidre Meldrum, Dean of Engineering at Arizona State
communication.Students also select two areas of emphasis from: (1) Industrial Engineering Technology, (2)Mechanical Engineering Technology, (3) Engineering Management and Entrepreneurship, (4)Energy Technology, and (5) Multidisciplinary Engineering Technology. Graduates will betrained in modern technologies and equipped with the practical skills and hands-on experiencenecessary to thrive in advanced technology industries. While WVU engineering degree programsemphasize theoretical concepts to design solutions for complex open-ended problems, theengineering technology degree program focuses on teaching students through practical classprojects and laboratory experiences how to use the right materials, sensors, electric parts, andprocesses to solve broadly defined
and their relationship with major courses taught, in one form or another, atany university or college supporting a space engineering or physics program. In Table 1.1 ourcourse level is indicated, as appropriate, by degree plan year, e.g. “3” indicates a Junior-levelclass.The intention of this paper is to stimulate the usage of problem solving techniques which canraise the awareness of space debris and give interesting, realistic examples for the classroom.Section 3 contains a non-exhaustive list of examples which illustrate that the field of space debrisis very complex and interdisciplinary requiring, as it does, an integrated understanding ofdynamics, mathematics and statistics, design best practices, the space environment, and evenspace
-Long Learning) and Outcome 14,(Business and Public Policy). The assessment for business and public policy was downgraded.The initial rating was based on averaging the assessment of business knowledge (sub-Level 1)and public policy awareness (almost Level 2). A new interpretation indicates that Level 1 abilityis needed in both areas. Future USMA curriculum revisions will require more emphasis onbusiness practices and issues.After the Curriculum committee recommended the use of 3 levels mentioned above, CAP3established the Competency Committee to study and recommend the best method of assessingthe outcomes. After much debate and research into alternative methods by the CompetencyCommittee, it was decided that the Curriculum Committee suggestion
particularly important for engineering students because often fresh graduates are blamed that they do not have enough practical knowledge. Service learning could decrease the gap between the academic and practical knowledge. This is a new experience that I might work on when I go back to my country (Kuwait) and I will apply what I learned to evaluate air quality especially with oil sector around exploration and production areas.Habitat for I learned how to apply previously obtained knowledge (from economics to engineeringHumanity classes) to real-world projects, especially with regard to applying that knowledge to the long-term environmental impacts of
an understanding of the broad context in which engineering occurs. Systems thinking is a holistic approach to design that requires understanding the connectedness of engineering projects and decisions to broader social, economic, and environmental systems. In systems thinking it is understood that the components of a design act differently when isolated from the environment or other parts of the system. Thus, there is an inherent need for interdisciplinary collaboration to best understand the impacts and tradeoffs of engineering design decisions. The sustainability thread encompasses the skills and behaviors desired of a graduate that will allow them to navigate the environmental, social, technical, and economic
particular location on a map. Examples include parcel, zoning and land use data;information about rivers, lakes, and other waterbodies; performance data for transportationinfrastructure; demographics; aerial photography; etc. All of this information is used to analyzeenvironmental conditions, measure development impacts, and ultimately, make decisions abouthow to best manage natural resources and the built environment in a sustainable way.Methods The video streamed tutorials for incorporating these packages into the classes weredeveloped using the Camtasia Studio software package. Camtasia Studio is a screen videocapture program which captures parts of the screen defined by the user and records any actionoccurring in that area. It is generally
post-baccalaureate formal education as well as pre-licensure experience. Specific emphasis is giventhose BOK2 outcomes that previous survey data identified as being a challenge for manyprograms to address within current curricular design. The curriculum, as developed, isconsidered to be BOK2 compliant, in addition to meeting current university graduation andABET/EAC accreditation requirements.IntroductionThe first edition of the Civil Engineering Body of Knowledge for the 21st Century1 (BOK1) wasreleased in January 2004. Based on various inputs, a second edition of the Civil EngineeringBody of Knowledge for the 21st Century2 (BOK2) was developed and released in February 2008.The BOK1 has already impacted accreditation criteria and civil
overengineering of solutions that are so common in products, projects, orprocesses that are loaded with features that have little value to most consumers, we focused onfrugality in design thinking as a way of bringing products within the reach of a larger segment of thepopulation by focusing on the customer. Frugal Engineering can be defined as a process that reducesproduct/process/project complexity with a focus on customer need and affordability. Some universitieshave already seen the need for frugality, as in the Frugal Innovation Hub at Santa Clara University(https://www.scu.edu/engineering/labs--research/labs/frugal-innovation-hub/), and the Social E Lab atStanford University where complete projects as part of a program in Design for Extreme
Engineering from Old Dominion University and a Masters Degree in National Security and Strategic Studies from the U.S. Naval War College. His research interests include optimization using agent-based modeling techniques, response surface methodology utilizing generalized polynomial chaos, design process methodology, and engineering education pedagogy. He is currently serving as the Director of the Center for Innovation and Engineering.Dr. Luksa Luznik, United States Naval Academy Page 24.960.1Capt. Wesly AndersonDr. Steven J. Condly, United States Military Academy c American Society for