. Page 22.185.6 Figure 2.- Summary of Assessment7. ConclusionsDifferent autonomous vehicles were designed and built (as shown in Figures 3 - 5), for thespecific task of participating in several robotic competitions, and to fulfill the course requirementfor the students in our department. The participation in this course gave students real-life teamwork experience. They experienced the application of theoretical information in different areasof knowledge to solve real engineering problems. This experience could later be used in theirprofessional careers to solve similar engineering problems in numerous applications. Thepotential of real-world autonomous devices being able to control themselves is growing, and insome
AC 2011-2439: ANALYZING THE TRANSFORMATIVE NATURE OF EN-GINEERING EDUCATION PROPOSALSStephanie M Gillespie, University of Miami Stephanie Gillespie is currently an undergraduate student at the University of Miami in Coral Gables, Florida studying electrical engineering with a concentration in audio. Expected to graduate in May 2012, her career goals include to obtain her Ph.D and teach engineering at the collegiate level. Her research interests include engineering education as well as signal processing for audio applications. In addition to her academic pursuits, Stephanie is currently president of the student chapter of the Society of Women Engineers at the University of Miami. Her research for this paper was
where she led a university team to successfully launch their first virtual campus. She began her career working as a computer analyst for the Department of Defense. Dr. Scales presents regularly to the American Society of Engineering Education and serves on Ph.D. graduate committees. She is an affiliate faculty member with the Department of Engineering Education and publishes in the area of instructional technology and distance learning. She holds a Ph.D. in Curriculum and Instruction with a concentration in Instructional Technology from Virginia Tech, a M.S. in Applied Behavioral Science from Johns Hopkins and a B.S. in Computer Science from Old Dominion University
2011 ASEE Annual ConferenceConclusions: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 consistentwith the Program Educational Objectives and Program Outcomes.We summarized the process by which student performance will be evaluated and studentprogress is monitored. Our objective is to expose students to organized teaching andcomplementary professors. The first style is oriented toward mechanical engineering students,where emphasis is placed on the theory and fundamentals of thermodynamics with anexposure to “design”, with emphasis on real
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
engineeringstudents better understand concepts, identify patterns, and discover problems not addressed in thetextbooks. Engineering students are likely to be more engaged in the learning process bystudying the latest natural phenomenon such as flooding in Atlanta and drought in Texas.1. IntroductionSensors play a critical role in engineering and science applications such as monitoringenvironmental metrics, controlling industrial processes, and coordinating traffic flow. Inclusionof sensing science (also known as sensor science) and sensor data within engineering classroomsis becoming increasingly beneficial for engineering education. It motivates students to pursuescience and engineering disciplines and associated career paths1. Further, it makes the
methods.9 Finally, we note that the flexi-bility of this interface allows for continued growth of the Remote Lab in available instrumentbackends as well as with the user interface frontends.AcknowledgmentsWe would like to thank Mark Bohr and Intel Corporation for providing the Keithley 2612 andother Intel test devices for use in the remote laboratory. We also appreciate undergraduate feed-back by Mr. Jen-Chieh Liu and Mr. Shengzhao Wu. Additional funding was made possible bythe National Science Foundation grants CCF-0829907 and CAREER ECCS-0954423, the Page 15.113.8nanoHUB.org, the Micron Technology Foundation (D.E), the NSF and
-direction and motivation, improved research and problem-solvingskills, and understanding how classroom learning connects to jobs and careers.5 Page 15.741.5 Table 3: Universities and Their Partnership with Habitat for Humanity Habitat University Department & Course Partnership Basics LocationLouisiana Construction Management, Habitat for LSU’s Center for CommunityState CM1010 Humanity of Engagement Learning andUniversity
classroomsin order to have enough space for the activities. In the spring of 2008, it was suggestedthat each math teacher (9 math teachers total in this school) only recommend 2 studentseach week and the students had to provide a signed permission slip each week. Onaverage 15 students participated each week in the spring of 2008. The program continuedat this school in this fashion each semester and on average 10 and 7 students participatedin this program in the fall 2008 and spring 2009 semesters respectively. From 2007onward at the beginning of each semester the Fellows took 5 minutes to talk aboutthemselves and their future career plans. In addition, throughout the program we heldopen forums where students asked questions to the Fellows on any topic
often perform poorly in their first calculus course. Working from the perceptionthat first year engineering students do not make the connection between what they learn incalculus and the problems they solve in freshman engineering, the faculty who teach theengineering sections of first semester calculus and the faculty who teach freshman engineeringworked together to define projects that span both classes.The primary goal of these projects was to show students how the concepts and techniques theywere learning in math class were relevant to their future career in engineering. It was proposedand believed that if the students understood the connection between the two subjects, they wouldunderstand both subjects better and be motivated to work
successful engineering career development, the extent ofimplementation is limited to the team projects in the classroom. Manyengineering/business courses are pure lecture-based, and do not usually containcomponents that help student to boost their communication skills within the frameworkof engineering problems. The limited exposure to this critical success skill has resulted inisolated learning experience. Students lack the broad understanding in other areas ofstudy and oftentimes speaking different languages between the disciplines. Manyindustries (i.e., automotive, aerospace, electronics, etc.) are complaining about the lack ofpreparation future engineers are receiving in colleges and universities. The industriespointed out that there exists a
Mechanical Engineers, and the US National Science Foundation-sponsored SUCCEED Coalition. He is also active in the POGIL project; he has been invited to attend the last three POGIL National Meetings and serves on the Education Research Committee for the project. He has received several awards for his work, including the Presidential Early Career Award for Scientists and Engineers, the Ralph Teetor Education Award from the Society of Automotive Engineers, being named a University of Florida Distinguished Teaching Scholar, and being named the University of Florida Teacher of the Year for 2003-04. He is a member of the American Society for Engineering Education, the American Educational
injury or handicap. The increasing life expectancyand the search for better health care and preventive therapies have influenced the demand growthfor medical devices. To remain competitive in the global market, medical device manufacturersneed highly qualified engineers to develop innovative and functional products.Undergraduate engineering students are often taught theoretical concepts without having theopportunity to actually apply these concepts in a real-world context. The National Academy ofEngineering (NAE) made the following two recommendations that are relevant to academicinstitutions: (1) academic institutions should take the steps to cultivate U.S. student interest, andaptitude for careers in engineering, and (2) academic institutions
computer programming. Coincidently the 2008 – 2009 employment and labor report by the U.S. Bureau of Labor Statistics predicts the need for engineers with programming experience will be one of the careers with the largest numerical increase and demand. This research outlines: 1) the need for engineering in k-12 environments, 2) analyzes the reasons for which schools have had a difficult time fully integrating engineering into school curriculum, 3) proposes a mixed content and pedagogical approach to teaching engineering and programming based on a hands-on inquiry approach, and 4) outlines additional benefits of using a blended content approach such as this (e.g., improved student
multidisciplinary: able to communicate with, work with, and manage other typesof engineers and scientists and to learn aspects of these other engineering and science disciplines,as needed, throughout their careers.This multidisciplinary systems approach is reflected in nuclear engineering education.Undergraduate nuclear engineering curricula typically include a much broader basic science,mathematics, and general engineering background than most other engineering majors.14 This iseven more relevant now as the nuclear industry continues to both mature and broaden, andnuclear engineering majors are in ever higher demand for more and more diverse and cross-disciplinary careers. It is important for this broad background and practical systems view to bereflected
technology use in the workplace. His career focus has been on managing and leading technological innovation in the workplace. He has over (15) years of experience in networking, systems integration and the project management fields. His prior experience base also includes (6) years as a full-time faculty instructor and (12) year’s service as an officer in the United States Marine Corps. Address: College of Technology & Computer Science, 212 Science and Technology Bldg, East Carolina University, Greenville, NC 27858; email: leskoc@ecu.edu; phone: 252-737-1907.John Pickard, East Carolina University John Pickard is an Instructor in the Department of Technology Systems, College of Technology
are graduating, and are already thinking of their future careers. One objective inintegrating the entrepreneurial mindset into this course is the broadening of students’perspectives on how their creative ideas can be developed into a marketable product, with theintent that students see beyond just solving an engineering problem to get a grade or please asupervisor, but to think about the potential for commercialization of their products.The structure of the Senior Design course is well‐suited for integrating entrepreneurial concepts.To begin, the students are already working on a project in a simulated professional environment,and student questions and class and team discussion can be guided to include the entrepreneurialconsiderations. For
(with one being an adjunct instructor when possible) and the director ofcounseling. Other possible members include the learning center director, tutoring center director,curriculum developer, articulation officer, recruitment director, outreach coordinator, publicinformation officer, an equity/women's center coordinator, a school-to-career director, a researchand planning officer, and other key stakeholders.The leadership team model ensures that the entire college will work together to make surewomen are recruited and retained in STEM programs, and that the STEM program will not beexpected to take on functions outside of its normal duties. For example, in many of the collegesthe public information officer has assisted with distributing a press
pursuing degrees in theengineering field. Students in the Mechanical, Electrical, and Industrial fields along withmany others can learn many new skills from multi-disciplinary projects such as the rapidprototype design of a walking robot. Such projects show students how to use differenttypes of technology, and demonstrate how advanced technology can be used in an actualapplication. This project teaches future engineers and technologists various advancedskills that can be used in their careers. Overall, many different fields of engineering canbenefit from this application, enabling the development of skill and knowledge in manydifferent engineering aspects and processes. Students in the Applied Engineering Technology programs are required
science, outcomes of science, and issues around career development and mentoring in STEM fields. Dr. Melkers has conducted performance-related work for the governments of Mexico and Latvia, the American Association for the Advancement of Science, the National Research Council, HUD, the States of Alaska, Georgia, Rhode Island and Maine, the City of Atlanta, and the Atlanta Urban League. Dr. Melkers joined the Public Policy faculty in 2007. She previously was on the faculty of the University of Illinois at Chicago, Georgia State University, and the University of Alaska. She earned her PhD in Public Administration at the Maxwell School at Syracuse University in 1993. She is co-editor of
AC 2010-2401: MONEY, MATH AND ENGINEERING GRADUATION: MOREHIGH SCHOOL FUNDING COULD MEAN MORE UNDERREPRESENTEDENGINEERSAmy Freeman, Pennsylvania State University Dr. Amy L. Freeman, is the Assistant Dean of Engineering Diversity at The Pennsylvania State University where she received her PhD in Workforce Education and her MS in Architectural Engineering. She has over twenty years of experience in diversity advocacy, and currently manages several retention programs targeting women and underrepresented technical students at all levels of the academic and career development pipeline. She is the current president of the National Association of Multicultural Engineering Program Advocates (NAMEPA).Anita
. Chicago: University of Chicago Press.10. DeNeui, Daniel L.C. (June 2003). An Investigation of First-Year College Students’ Psychological Sense of Community on Campus. College Student Journal, 37, 224-234.11. Liebler, Joan & McConnell, Charles (2004). Management Principles for Health Care Professionals, 5th ed., Jones & Bartlett Publishers, Inc.12. Lee, Linda & Wilson, Denise (2005). Empowering the Engineering Undergraduate in an Era of Economic Globalization, Frontiers in Education Conference: Indianapolis, IN.13. Lee, Linda & Wilson, Denise (2006). The Impact of Affective and Relational Factors on Classroom Experience and Career Outlook Among First-year Engineering Undergraduates, Frontiers in Education Conference
engineering practice, 37% of the students mentioned thedocumentation, 17% referred to problem solving with alternative solutions, and 17% to the oralpresentation. The following are representative student comments in response to the questions "Inwhat ways did NIFTY affect your opinion of engineering as a career alternative?" and "WhichNIFTY activities contributed most to your understanding of engineering practice?" "I found Engineering much more interesting when we got into NIFTY – after the 1st semester I was considering leaving engineering, but now I don't plan on it." "The NIFTY project only supported and changed my opinion of engineering for the better. The project showed me more about design and the processes it requires, communication
University, Philadelphia, USA, and Villonova University, Philadelphia, USA. The experience and expo- sure earned during the visit gives an helping hand in building the Anna University of Technology Madurai matching with international standards. Dr. R.Murugesan has an illustrious career of over 33 years in academic arena and has about 31 interna- tional journal/conference publications and 30 national journal/conference publications to his credit. He has authored 18 books in various disciplines. He was a National Executive Council Member of ISTE (In- dian Society for Technical Education) for seven terms and also served as National Students Advisor for Institution of Engineers. He was a Member of the Syndicate of Anna
GC 2012-5623: MISSION10X TRANSFORMING TEACHERS FOR EN-HANCING EMPLOYABILITY SKILLS OF ENGINEERING GRADUATESMr. Nagarjuna Sadineni, Mission10X Wipro Technologies Nagarjuna holds an MBA in Technology Management from Latrobe University, Melbourne in addition to Technical Qualification from GIOE, Hyderabad, India. Nagarjuna, is a Wipro (NYSE Listed as WIT) veteran and has adorned various functional roles and cham- pioned pioneering initiatives during his 20+ years of ongoing stint at Wipro and its affiliates. He started his career with the manufacturing operations team at Wipro Peripherals factory, Mysore and subsequently moved into the marketing team at Bangalore, his contributions in both the roles were signif
Engineering Connection. Identify and describe how you will explicitly address theways in which your lesson or activity is representative of the processes, habits of mind andpractices used by engineers, or is demonstrative of work in specific engineering fields.i At leastone of those must be within the first four listed, below; i.e., do not only check “other”. Check allthat apply: Use of an engineering design process that has at least one iteration/improvement Attention to specific engineering habits of mind Attention to engineering practices (as described in the NGSS/Framework and as practiced by engineers) Attention to specific engineering careers or fields related to the lesson/activity
engineers, or is demonstrative of work in specific engineering fields.i At leastone of those must be within the first four listed, below; i.e., do not only check “other”. Check allthat apply: Use of an engineering design process that has at least one iteration/improvement Attention to specific engineering habits of mind Attention to engineering practices (as described in the NGSS/Framework and as practiced by engineers) Attention to specific engineering careers or fields related to the lesson/activity Other (please describe below)Provide a description of how you will explicitly address these aspects of authentic engineering inyour workshop (maximum 2,000 characters):The focus of this workshop is
the NGSS/Framework and as practiced by engineers) Attention to specific engineering careers or fields related to the lesson/activity Other (please describe below)Provide a description of how you will explicitly address these aspects of authentic engineering inyour workshop (maximum 2,000 characters):The workshop requires the use of the EDP to solve the problem given. The participants definethe problem, brainstorm solutions, build models to solve those solutions, test the models, takedata, analyze the data and iterate until they have a solution that they bring to the final test andanalysis stage. Each of the habits of mind (as defined by the NAE) is discussed in the course ofthe workshop as the facilitators highlight
design process that has at least one iteration/improvement Attention to specific engineering habits of mind Attention to engineering practices (as described in the NGSS/Framework and as practiced by engineers) Attention to specific engineering careers or fields related to the lesson/activity Other (please describe below)Provide a description of how you will explicitly address these aspects of authentic engineering inyour workshop (maximum 2,000 characters):Authentic Engineering: Drawing is a fundamental engineering skill that is used for conceptgeneration and sharing of ideas with others. The proverbial “back of the envelope” sketch issomething engineers do on a daily basis, and is also something that
the professional development? - Have you finished or are you engaged now in supplementary educational activities (workshops, language courses, trainings, etc.)? - Are you going to continue your study after finishing the program? Where? When? - What kinds of CPD are the most effective for engineers? - What do you think about the mentor’s role in the career of young engineer?The AEER Accreditation Centre is working closely with academic institutions to help themprepare for the engineering educational program accreditation, namely, write self-study reportand conduct the on-site visit. Besides it develops training programs for evaluators andorganizes workshops gathered experts (representatives from industry, academe