launching torpedoes. Partof the system requirements for their design was to seamlessly integrate the current robosubsystems into their project. This modification also created some continuity in the student’sworking knowledge on the project. In past years, once the completion was finished the studentsgraduated and went on with their various careers and the experiential knowledge was totally lostfrom the project. By having overlapping capstone projects working on the same goals, theexperience and working knowledge is maintained and successfully passed on to other teammembers.The third change made was to have the students create a Robosub Club to encourage youngerstudents to get involved in the project. The club met weekly followed by a pool test
work full-time after graduation, 59% accepted positions withsponsoring organizations. This shows how, beyond enhancing performance in QUEST learningoutcomes, this course provides students with career-building opportunities and provides clientswith a talented pool of prospective full-time hires.Suggestions and Practical ImplicationsMany elements of this course are not unique to the QUEST program and may be replicated inother courses and at other universities. By identifying and assessing learning outcomes, we areable to better understand what our students are learning and make improvements to the course.This has been critical in enabling comparisons to be made across projects and across years.Additionally, by involving a number of stakeholders
in engineering is considered to be one of the critical coursesstudents will take in their journey towards the attainment of an engineering degree as a key piecein career development. However, not all departments support the idea of a multidisciplinarycapstone because they fear it will negatively impact their ability to meet their department’sspecific curricular needs, and ensure ABET requirements are met. The administration andfacilitation of a multidisciplinary capstone takes significant resource dedication, and asustainable structure would need to be built the appropriate infrastructure to ensure futuresuccess.Implications and RecommendationsMultidisciplinary capstone has much support across campus, as it reflects experiences studentswill
there is little deep interdisciplinary work or considerations. Thismay be due to the lack of communication between professors from different departments andlack of students taking courses outside of their department.” Student Band:One faculty proffered a practical issue, which should be explored further, by acknowledgingthat “… better solutions are made in multidisciplinary teams in real life, however, studentsmay learn slower when surrounded by students from different disciplines.” Faculty EStudents who volunteered to join in multidisciplinary projects were motivated to do sobecause:“Applicability/ employability/ research potential.” Student Dand:“Learning new skills that I might use in my future career.” Student EOther students
. In order to help advance his career in academia, he left Dalarna University to pursue a Ph.D. in Mechanical Engineering at Georgia Tech’s European campus in Metz, France. He continued working in artificial intelligence by developing an alternative method for solving boundary value problems using artificial neural networks. After getting married soon after graduation, he moved his wife to France where he worked as a Visiting Assistant Professor at Georgia Tech for two years before accepting a tenure-track position Penn State’s Lehigh Valley campus. His current position in mechatronics at KSU allows Dr. McFall to live closer to family and pursue his passion for scholarship at a student-centered technical university
Center Model,”Journal of Engineering Education, vol. 89 no. 3, pp. 369-375, 2000[8] Poe, Mya, Lerner, Neal, and Craig, Jennifer Learning to Communicate in Science and Engineering:Case Studies from MIT, The MIT Press. Cambridge Massachusetts, pp. 18-27, 2010[9] Leydens, J. A., “Novice and insider perspectives on academic and workplace writing: toward acurriculum of rhetorical awareness” IEEE Transactions of Professional Communication 50 (1), 45-46.[10] Conrad, Susan, “A Comparison of Practitioner and Student Writing in Civil Engineering” 106(2),191-217[11] Beaufort, Anne, College Writing and Beyond: A New Framework for University Writing Instruction,Utah State, 2007[12] Artemeva, Natasha, “‘An Engrained Part of My Career’: The Formation of a
; application of personal contributions; and overallresearch experience.On the whole, they did a good job of expressing themselves, indicating that they gave a lot ofthought and consideration to what they had done and how best to describe it. Due to the largevolume of their responses, below is a sampling of what they said. ● The engineering process is all about being flexible, being a critical thinker, and being a problem solver. ● [We]had to find a way to make this project connect with [our] chosen field. For example, I am a civil engineering student. One of the things I found particularly useful to my career path was the practice I got using AutoCAD, which is a program that most civil engineers use for creating designs. In
on public presentations to assist in providingfeedback to students when presenting on their project design, and/or final project outcome(s).Another example is when representatives from Knoll Atomic Power Laboratory (KAPL) assistwith the interpretation of the Myers Briggs Type Indicator (MBTI) assessment that is done withthe students.Examples of support from corporate partners for PD-3 include representatives from GeneralElectric (GE) working in concert with the PD-3 instructors to provide the students feedbackregarding their initial impression when speaking extemporaneously on a topic that they willlikely address further in their careers. Also, other entities such as General Dynamics and BAESystems have come into the classroom to support the
resolved and met with the field Page 13.786.5engineers charged with the development.Class OrganizationEach class is organized to simulate a design office. Students are interviewed to determine theirtechnical and career interests and their desire to be a manager or development engineer. Timecommitments of each assignment are discussed, a class organization chart is developed, andcontact information assembled. The contact information becomes critical with theinterdisciplinary team because students often do not know their classmates from different majors.Class objectives are developed in the first two weeks. These include the global expectations
semester freshman project was to design andfabricate a rescue device that would safely transport a child or small animal from a three-storybuilding. Major projects are not used in other courses. The National Academy of Engineering7recommends that “… students should be introduced to the essence of engineering early in theirundergraduate careers” and that “… engineering educators should introduce interdisciplinarylearning in the undergraduate curriculum …”. The project courses are designed to be consistentwith these recommendations.We have attempted to have the project topics drive the content and selection of companionmodules, rather than content driving the projects. The project then provides an engineeringcontext for these companion modules. The
newundergraduate Humanitarian Engineering Program. The purpose of this program is to prepareengineering students for careers that will interface with and directly benefit the underservedglobal community. Given this, it was anticipated that one outcome of the revised curriculumwould be improved attitudes on the part of participants with respect to community service. Thecurrent paper compares student attitude data collected in a sophomore required course in 2004,before students had participated in the revised Humanitarian Engineering curriculum, to that ofdata collected from seniors in 2007, after students completed, or at least became aware of therevised curriculum. The results of this investigation indicate a difference in the students’attitudes between
started in1989 to promote science and technology to high school students, our future workforce. Therobotics experience helped high school students explore realms of engineering and technology Page 11.729.5through intensive hands-on exercises, and many of them chose engineering to be their 4educational objective and career path. (This project requires knowledge in robotics, machinedesign, manufacturing processes, automatic control, fluid power, microcontrollers, andelectronic circuits and devices.) Fig. 1 shows the robot built with the help of Cal Poly Pomonastudents in 2005
study within engineering; and,secondary / flexible -- a secondary program that facilitates interdisciplinary study in areasoutside of engineering for students with unique career interests. All PEVs should understand thatany of these classes, or any variation or combination of these classes, can describe a validengineering or technology program under the set of titles represented by ASEE. Since there will Page 11.1035.5be substantial diversity in the goals and objectives of the various programs, as well as diversityin their constituencies, it may be expected that there will be substantial variation in their areas ofemphases.The rest of the ASEE
withhigh-quality interdisciplinary learning experiences that challenge them academically anddevelop their problem-solving, critical thinking, and communication skills. By buildingstrong local partnerships with business and higher education, Ford PAS encourages andprepares students for success in college and professional careers in fields such asbusiness, engineering, and technology.Several institutions of higher education have become actively involved in the Ford PASprogram. Ford PAS has partnered with Kettering University for the purpose of advancingthe topic of environmentally responsible engineering. The modules used in Ford PASprovide a framework upon which the Kettering University undergraduate course IME540Environmentally Conscious Design
provided funding for school to develop new ways of increasing the number of engineering graduates in Utah. The objective of this initiative called for tripling the number of engineering graduates by 2008. The Integrated Engineering program was created to expand the pool of engineering branches offered in Utah’s schools of higher education, without duplicating any of them. It addresses the needs that are not covered by the traditional engineering programs; 3. many students are interested in a blend of engineering disciplines rather than a specific branch. This is especially true for those wanting to pursue a career in operations and/or management. Because of its multidisciplinary nature, the Integrated
mechatronic engineer- ing, since 1995. He also has considerable experience in the design and implementation of mechatronic and production engineering courses. His non-academic career is centered on product development and manufacturing processes.Dr. ANA RITA QUEIROZ FERRAZ, UNIVERSIDADE ESTADUAL DE FEIRA DE SANTANA Psychologist. Master in Education. PhD in Education and Contemporary. Search the relationships be- tween education, art and contemporary body.Mrs. Cristina Voigt Coutinho, Voigt Brasil Recursos HUmanos Director of Voigt Brazil Recursos Humanos. Psychologist graduated from the Federal University of Santa Catarina, with postgraduate studies in Psychodrama at the Brazilian Society of Psychodrama and Orga
. It showed real individuals in healthcaresystems in Guatemala. It was a great way to apply what we learned over the semester to real lifesituations.I definitely want to return to Guatemala or another developing country to provide help of somesort.I have become very interested in global health. With whatever I decide to do as a career I wouldlove to be involved globally. Page 25.728.7DiscussionThe results from the student surveys showed increased student-reported confidence in theirability to develop solutions to global health issues after completing the course (mean responseincreased from 2.4 to 3.4; p = 0.001). Additionally, the student
capstone design-build experience with a focus onsystem design, building, testing, and operation.8The ChallengeIn a uniquely pervasive manner, Arizona State University’s College of Technology andInnovation (CTI) values learning of engineering in context (often called engaged learning or“hands-on” learning). As a result, CTI engineering education programs have infused authenticpractice-based experience in the student’s educational experience. Examples of such experiencesinclude realistic projects and problems mirroring the situations CTI students will encounter intheir professional engineering careers. Characteristics of these experiences include studentsworking on interdisciplinary teams, where interdisciplinary implies a broad spectrum of skills
computerscience. This course aims at attracting more students to engage in multi-disciplinary study,research, and career by providing a problem-oriented approach to learning programming andunderstanding dynamic systems.AcknowledgementThis report is based on work supported by the National Science Foundation through the grantIIS-0829683. Any opinions, findings, and conclusions or recommendations expressed in thepaper are those of the authors and do not necessarily reflect the views of the NSF.Bibliography1. M. Joshi, The Concepts and Practice of Mathematical Finance. Cambridge, 2003.2. S. L. Spencer, M. J. Berryman, J. A. Garcia, and D. Abbott, “An ordinary differential equation model for themultistep transformation to cancer,” Journal of Theoretical
state students to Louisiana Tech University. One third of the currentenrollment of nanosystems engineering majors is out of state students as compared to theuniversity average of only 14% of students being out-of-state residents. Additionally, theuniqueness of the degree has helped to elevate the university to be recognized for itsmicro/nanotechnology education and research. In the past five years, our college has had threeNSF Career award winners (all but one for the entire college), which have used this uniquedegree program as part of their required educational component of their grants. In addition, theNSE faculty have also received two NSF Nanotechnology Undergraduate Education awards thathave assisted with course and laboratory
combines technical strengths from different majorscombined into one project.New Teaching Methodologies: The teaching methodology introduced in this track followinnovative paths. An application will be selected and theories will be covered to serve thatapplication. This is a departure from the traditional curricula.Research-based Learning: This program emphasizes research early in the program and graduatestudents will mentor undergraduate students in research projects.Hand- on Lab Experiences: The new track will provide hands on lab experiences for the studentsand will help them to pursue careers in nanotechnologyIntegration of Knowledge: The new program integrates knowledge from science and engineeringinto nanotechnology projects. Students at the
asked their mentors aboutinstructors or faculty, advice on general education classes, how to dress for interviews andinquired on other activities around campus. At the conclusion of the E2 bridge camp or ENGR 1050 class, peer mentors are allencouraged to continue including protégés in semester activities such as student organizationmeetings, design competitions, professional/personal development seminars and other universityactivities such as Career Day and Fall Fest.C. Recruitment and Training Recruitment and training of peer mentors begins in the spring. In 2008 and 2009,recruitment consisted of contacting past participants of the E2 bridge camp and the ENGR 1050class or getting names from faculty, staff and other peer mentors
workforces. Engineering schools have greatdifficulty measuring their students’ preparedness for globally focused workforces. Globalpreparedness cannot be measured with a traditional examination as it involves difficult tomeasure constructs that fit together as metrics of preparedness. Throughout the past two decades,researchers have attempted to measure related constructs such as citizenry and internationallyfocused readiness. Unfortunately, none of these metrics exactly aligned to career preparednessin the way that this paper begins to describe. Further, in the recent past, no metrics specificallymeasure program components that may assist in global preparedness, nor do they focusdeliberately on engineering education.Research Design and Metric
,teamwork and crisis management. The purpose of this reflection is to show students that theyhave not just gained technical knowledge but also learned skills in adjacent fields, such asteamwork, multidisciplinary work, team dynamics and crisis management, which are allimportant for their future careers as practicing engineers. Page 15.1211.7Several interesting results emerged from this exercise. The students found that it was better towork as a team than individually and that team management was easier if they closely followedthe project schedule from the beginning. The teachers made these suggestions throughout theentire term, but the students
reported by seniors at similar universities. Fortunately, seniors have reported consistently strongly positive responses in almost all areas of the EBI survey. • CDC Report: The Career Development Center provides an annual report summarizing internships, post-graduation employment, and attendance at graduate school.Other forms of feedback are internal to the program. • Advisory Board Report: Bi-annual RBE Advisory Board meetings provide feedback to the program director, and offer suggestions about improvements and future directions. • Faculty Retreats: The program conducts a yearly faculty retreat with the goals of reviewing recent self-assessment data, evaluating current strengths and weaknesses, and
rubrics for all measures).Conclusions:The architectural Engineering Program curriculum at University of Wyoming has beenimproved. This paper describe how students are prepared for a professional career and furtherstudy in the discipline through the curriculum and indicate how the curriculum is consistent withthe Program Educational Objectives and Program Outcomes.Integrated design refers to the use of multiple building systems working together. In our case theintegrated design refers to the functionality of the engineering aspect working in conjunctionwith the architectural appeal and usefulness of the building. Both of the examples showed the useof the architectural design as a passive ventilation system. This appears to be a forerunner
with a minor in Spanish. She started her career in education as a member of the Baltimore City Teaching Residency. She taught at a neighborhood public high school while earning her Master’s degree from Johns Hopkins University. After three years in Baltimore, she relocated to Washington, D. C. to teach at a public charter middle school. After four years teaching middle school, she decided to pursue her doctorate from Temple University. Her dissertation focused on novice teachers’ perceptions of their preparation for teaching at the middle level. Dr. Hesson’s current research interests include science education and middle level teacher preparation. c American Society for Engineering
, thinking as part of a team, and thinking and communicating inseveral “languages” of design. Fry12 has also discussed the importance of “design thinking” inengineering education and underscores the value of multidisciplinary teams. Until designpractices are fully integrated into engineering curricula, capstone design programs will bear asubstantial burden to better prepare undergraduates for careers that inevitably emphasize the“practice” of design.At RIT, the infusion of multidisciplinary design into the curriculum represents a strategicimperative for the KGCOE. Without strong top-down commitment, the likelihood of making anoticeable impact on the broader challenge outlined above seems remote. In addition to theMSD program discussed in this paper
Paper ID #26443The Impact of Multidisciplinary Teams on Sustainability Projects in EPICSDr. Stephanie M. Gillespie, Arizona State University Stephanie Gillespie joined the EPICS@ASU program after finishing her Ph.D. in Electrical and Computer Engineering from the Georgia Institute of Technology. She has extensive experience in K-12 outreach and curriculum development, and is passionate about giving students opportunities to make a difference throughout their academic career. As the EPICS Director of Instruction, Stephanie leads the EPICS pro- gram’s curriculum development, EPICS-Community College program, and program
fixate the project as soon as possible.Students also reported in the survey how, even though coordinating and understanding otherdisciplines' priorities was challenging, it still provided them a real-life experience of what theywould encounter in their careers. It was very interesting to monitor the evolution of the mutualperceptions of their roles during the project with students either gaining a better understanding ofeach other’s roles and priorities, or even of their own roles on the project. With the increasing useof integrated PDMs in the industry, this module presents a valuable platform for students fromdifferent