their own personality traits, become more motivated to develop a career plan, understandhow to best present themselves, and gain additional experience in making professional presentations withfeedback from fellow students.8. “Meetings Modules”: These modules will provide the participating students with the opportunityto participate in the College of Engineering and Computer Science student professional societies and beacquainted with University administrators as well as representatives from business and industry.Professional speakers will be invited to discuss trends in technologies, professional opportunities, and theworkplace. In addition, student participation will be facilitated through a variety of panel discussionswith representatives of
Design, 148, 1.14. McIntosh, N. (1996). Why do we lecture? . Jhpiego Corporation.15. Merrill, D. M. (2002). First Principles of Instruction. ETR&D, 50(3), 17.16. Michaelson, L. K., & Black, R. H. (1994). Building learning teams: The key to harnessing the power of small groups in higher education. State College, PA: National Center for Teaching and Learning Assessment.17. Price, D. A., & Mitchell, C. A. (1993). A model for clinical teaching and learning. Medical Education, 27(1), 6.18. Putnam, A. R. (2001). Problem-Based Teaching and Learning in Technology Education. Paper presented at the Annual Conference of the Association for Career and Technical Education, New Orleans, LA.19. Ross, P. (2006
students tolearn. This encourages drawing connections between materials, their properties, their processing,and their selection. The team work and content negotiation mimics design teams and processesthat occur in engineering careers after graduation. Expression of content knowledge in multiplerepresentations allows for students to evaluate the fidelity of their mental model with respect tothe consensus model as well as revealing any possible inconsistencies and associatedmisconceptions in their mental model of a concept. By addressing and repairing misconceptionsin foundational content areas, such as bonding and solutions and solubility, students will be moreable to learn and understand complex topics such as dislocations, solid state diffusion
undergraduate aerospace curriculum enables the fresh-out engineer to be moreeffective in the workforce. The benefits of this program extend beyond just graduates from theinstitution where the materials were first introduced, but help numerous graduates from otherinstitutions that adopt the systems engineering curriculum. Although it takes years of experienceand exposure to space missions and the relevant disciplines to truly be a competent systemsengineer, being aware of the discipline at the start in one’s career can only benefit the aerospaceworkforce in general. As the most recent NASA Administrator, Michael Griffin, stated in aspeech to engineering educators: “System engineering is a holistic, integrative discipline, wherein the
IEEE/ACM Supercomputing Education Program 2006 and was the curriculum director for the Supercomputing Education Program 2005. In January 2008, he was awarded the NSF CAREER for work on transforming engineering education through learner-centric, adaptive cyber-tools and cyber-environments.Jacob Schroeder, Clemson University Dr. Schroeder is a post-doctoral researcher at Clemson University. His work focuses on cyberinfrastructure in engineering education. He holds a Ph.D. in Chemistry Education from Iowa State University.Hanjun Xian, Clemson University Hanjun Xian is a Ph.D student working on issues of design of cyber-environments in engineering education at Clemson University
to encourage the students to pursue a career in science, engineering, or technology.J. Dept of Civil Engineering - Complete the government required report on damage caused by mining in Western Pennsylvania to comply with PA Law Act 54. We are to analyze data from a state database and enter the information in Excel spreadsheet format. After entering the data for a mine we will analyze said data to see if there are any correlations or irregularities in the data.Based on our previous experiences, we felt the one component missing during the projects wasthe use of computers and improving computer skills in the completion of the projects. Thus, thisyear with the aid of an HP grant we introduced 20 tablet PCs into the
between ethnicities at the highschool level. Similar to findings of others, this study found that students’ views of mathematics as amale domain decreases as grade level increases (Kloosterman, Tassell, Ponniah, & Essex, 20015;McGraw & Lubienski, 20076). However, there is still this view at the lower grades, especially atthe middle school level. Because there is a need to increase the participation of females whopursue STEM majors in college and STEM careers beyond college, knowing that views ofmathematics as being a field for males is diminishing is encouraging.Teacher Perception To determine the location of the significance for the teacher perception variable,Bonferroni post-hoc tests were conducted. Table 7 presents the
become good friends. I think we will be able to help each other out in the future with our careers and we will be able to continue to learn from each other.” “I was impressed by Chinese culture and I find it very interesting. I was impressed with how friendly the Chinese students are as well as there strong work ethics.” “Sometimes it was very difficult to make decisions as a big group so I definitely think that breaking up into smaller groups is more effective and lets all the students really enjoy themselves more.”For the trip from Beijing to Shanghai, a train ride was arranged instead of a flight. The facultycoordinator intentionally arranged this train ride since it is the most common travel means inChina and was intended to give
and relationships of peoples andorganizations involved in technological development.”1 Harris et al2 describe theirapproach to engineering ethics as bridging the gap between theory and practice usingcurrent case studies available such as Hurricane Katrina and global warming. Fledderman3seeks to provide a text and a resource for the study of engineering ethics and to help futureengineers be prepared for confronting and resolving ethical dilemmas that they mightencounter during their professional careers. Martin and Schinzinger4 provide anintroduction to the key issues in engineering ethics, taking account of both specificorganizational contexts and broader technological trends. Baura5 approaches engineeringethics from an industrial perspective
AC 2009-1337: TEAM WORK AND DEMOCRATIC LEARNING IN PROJECTMANAGEMENT TRAININGIvan Lidon, University of Zaragoza MSc from the Engineering Faculty of Zaragoza University. He has worked as assistant at the Design and Manufacturing Engineering Department of the University of Zaragoza since 2004. His current interests are project management and product development areas.RUBEN REBOLLAR, University of Zaragoza MSc and Doctor from the Engineering Faculty of University of Zaragoza.. He is Associate Professor in the Design and Manufacturing Department at this university In his present academic career he is focused on teaching and researching in the areas of project management and product
education system systematically drove creativity andinnovativeness out of children at an early age. As this occurred within education systems,educators were also shaping lives by gradually increasing the structure and discipline maturingadolescents needed. Beyond these inherent needs for structure and discipline lie the curriculumof language, mathematics, science, history, culture, etc. all of which are critical to thedevelopment of successful careers and the development of entrepreneurs. This constant transitiontoward the development of our minds gradually moves a large percentage of the populationtoward left-brain analytical thinking. Yet the demand for creativity and innovativeness hastended to be thought of as right-brain functions. Bringing
conducted pedagogical research examining the efficacy of internet-based resources in student learning. Prof. Millunchick has received several awards, including the NSF CAREER award and the Sloan Foundation Fellowship.Crisca Bierwert, University of Michigan Crisca Bierwert is the Associate Director and Multicultural Coordinator at CRLT. She joined CRLT in 2000, became part of the administrative team in 2002, and became Associate Director in 2007. She provides workshops and consultations for departments and programs, consults with individual faculty members and GSIs, and leads programs involving interdisciplinarity and research on student learning. She is also involved in university-wide
conducted pedagogical research examining the efficacy of internet-based resources in student learning. Prof. Millunchick has received several awards, including the NSF CAREER award and the Sloan Foundation Fellowship.Crisca Bierwert, University of Michigan Crisca Bierwert is the Associate Director and Multicultural Coordinator at CRLT. She joined CRLT in 2000, became part of the administrative team in 2002, and became Associate Director in 2007. She provides workshops and consultations for departments and programs, consults with individual faculty members and GSIs, and leads programs involving interdisciplinarity and research on student learning. She is also involved in university-wide
AC 2009-1417: EFFICIENT TEACHING OF ELEMENTARY ENGINEERINGMECHANICS COURSESHenry Christiansen, Brigham Young University Henry N. Christiansen obtained a BS degree in Mathematics from Utah State University in 1957 and MS and PhD degrees in Engineering Mechanics from Stanford University in 1958 and 1962. He began his career at the Western Development Laboratories, Palo Alto CA in 1960 and later joined the faculty of the Civil and Environmental Engineering department at Brigham Young University in 1965. He served as chair of this department from 1980-1986. Professor Christiansen’s primary research has been in the field of computer graphics. He founded and served as Director of the Engineering
agree, 2 is neutral, 1 is somehow disagree and 0 iscompletely disagree. The percent of students that agreed or strongly agreed to any givenstatement is defined as a positive response. Among the questions, students were asked if teamwork skills are important to develop and if they are relevant in industrial scenarios. The vastmajority of students responded positively, demonstrating their awareness of the value team workskills once they start their careers. Students were also questioned about the importance ofdeveloping skills to critically evaluate other’s work. Again we found a highly positive responseamong all students in the class (91%) and students involved in the first phase of the project(92%). This finding is particularly encouraging to
as a Lecturer in Computer Science at two private IT Academies in Esslingen and Dresden. In addition, he was the Managing Director of an IT consulting firm which he founded in 1999. Dr. Schaefer started his career as an apprentice Toolmaker with one of Germany’s leading metal forming companies, where he specialized in CNC machining and the manufacture of compound tool sets for knuckle joint presses. On completion of his apprenticeship he went on to obtain an Advanced Technical College Certificate in Mechanical Engineering and followed this with a Masters degree in Mathematics from the University of Duisburg, Germany. Prior to working in academia Dr. Schaefer gained experience as
use their names as appropriate. Thequestions and responses to-date are given in Table 5. Several more are awaited and will beincluded in the final version of this paper.Table 5: Alumni Assessment (edited/ paraphrased for conciseness)1 Question: Why did you take the course, and how did those reasons and expectations compare with what you found in the course? Responses: • To learn more about the development of different renewable energy systems and recent technologies being used. Enjoyed the opportunity to focus on researching wind energy. I expected a bit more background (more comments on this in later questions) • Renewable energy is a growing field with career opportunities. Micro-renewable energy is often
in a general format using the categories: ≠ Knowledge ≠ Research skills and techniques ≠ Research environment ≠ Research management ≠ Personal effectiveness ≠ Communication skills ≠ Networking and team working ≠ Career management Page 14.346.15Formal PhD-level courses, doctoral dissertation research, and two specially designed coursesin teaching development, and research development and management contribute to theseoutcomes in varying and documentable forms. Table 8. Example Graduate Level Concentration and Specialty Area Courses MEng: Applied mechanics
Carolina, in the southeast US,continues to bring high-tech companies to the region, and these companies attract engineers andscientists who are looking for advanced degrees, and means of supplementing and advancingtheir careers. Too, these companies are looking for skill providers to offer degree programs fortheir employers. These factors combine to put NC State in a great position to attract students toan EM curriculum.Mission: The addition of an EM Program is consistent with the current College of Engineering(COE) Mission and effectively stands as an example of this pursuit. Contributing to the long-term goal of remaining a leading public college of engineering, an EM program at NCSU willenhance the breadth of offerings, thereby aligning the COE
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 & Computer
Management and the Society for I/O Psychology (SIOP). ≠ Dr. Joyce E. A. Russell, Leading the Innovative Venture. Dr. Russell is a Distinguished Tyser Teaching Fellow and Senior Executive Education Fellow, Department of Management and Organization, Robert H. Smith School of Business. She is a licensed Industrial and Organizational Psychologist and has over 25 years of experience consulting with both private and public sector organizations. Her expertise is primarily in the areas of leadership and management development, negotiation tactics, executive coaching, training, career development, work teams, and change management. Some of her clients have included: Lockheed Martin, Marriott, Oak
AC 2009-608: THE ROBOT RACER CAPSTONE PROJECTJames Archibald, Brigham Young University James K. Archibald received the B.S. degree (summa cum laude) in mathematics from Brigham Young University, Provo, UT, in 1981, and the M.S. and Ph.D. degrees in computer science from the University of Washington, Seattle, in 1983 and 1987, respectively. Since 1987, he has been with the Department of Electrical and Computer Engineering, Brigham Young University. His current research interests include robotics and multiagent systems. Dr. Archibald is a member of the Association for Computing Machinery and the Phi Kappa Phi.Doran Wilde, Brigham Young University Dr. Wilde started his career as an electrical
components of the course, but this is no surprise considering the applied nature of theparticipants’ majors. The most valuable evaluation input, however, came from narrativecomments to open-ended questions on the survey tool and from excerpts from student journals.These comments confirm that the experience is life-changing:“I have gained perspective into my major.”“I was pushed outside of my comfort zone and had to learn to solve problems and think aboutthings differently.”“Paradigm shift – we are all one world.”“[The most meaningful part was] taking information and using it to improve lives.”“I learned about myself and new career paths.”“I need/want to go back in the Peace Corps.”To date, evaluation of other dimensions of the WATER program has been
thedesigner within this environment. This was a new experience for us, and we were excited andcurious to work with scientists, engineers and manufacturers simultaneously. Interdisciplinarylearning and studio models had been discussed many times within our educational environment,but we had not yet had the opportunity to work with professions outside the field of design. Asstudents defining our identity as designers and our roles within creative teams of the future, wefelt this would be further defined and shaped by these experiences. By working co-operativelywithin the alternative framework of Biomimicry, this project has begun to challenge our notionof where we as designers fit into creative teams for our future careers, as well as how we can
sparked my interest, but I talkedwith Chris and he was interested also so I ended up taking it. Glad I didtoo. It's the first class I've had in three years where I knew more than oneother person. So it made for good times.""This was my favorite class so far at this school (which is why I was able todeal with 8am). I would like to have a career in robotics of some kind and Ithink this class prepared me for it more than any I will take for a longtime.""Your class is one of the most enjoyable ones I've taken at Rolla. You knewwhat you were talking about and actually care about the subject matter whichgoes a long way to making a course worthwhile.""If there were a major in robotics, this would be [the introductory computerengineering class].Teach it
ObjectivesThe main learning objectives for this project focused around engineering applications andgaining field experience. The purpose was to apply the concepts, skills, and practices discussed Page 14.532.5in a classroom setting to a scenario that would commonly be experienced throughout a typicalcivil engineer’s career. The four main learning objectives of this project were: 1. Gain real world engineering experience. 2. Implement educational knowledge in a professional setting a. Environmental systems analysis b. Engineering principles 3. Develop and expand skills necessary in a professional
membersconvey the concepts throughout the curriculum. Thus, attention to pedagogy is critical for facultyin all career stages [2].Individual differences exist in how students learn and how instructors teach [3]. Differences occurin the source, modality, treatment, and comprehension of the information received. Instructorsdiffer in the level of abstraction, modality, student contribution to class, and point of view (i.e.focused or wide-angle) of the information they present [3]. As a general rule, engineeringeducators most effectively reach those students who best learn (1) with internal information (e.g. Page 14.1344.2introspection), (2) with words
present the ways they will go about in makingsure worthwhile new technologies and methodologies are accepted by their prospectivecompanies in their future careers. The authors think an effort by all construction educators in thesame direction could prove to be very effective in ensuring enhancements in the nature of theconstruction industry into the future.Bibliography1. Accenture (Feb 24, 2005). Telematics: A transformational silent commerce application. Available online:www.accenture.com.2. Accenture Study (Feb 18, 2003). Construction Equipment Industry Adopts Wireless Technology to ImproveProfitability and Service Mobile applications of equipment telematics in the construction equipment industry.Available online ...findarticles.com/p/articles
. from Cornell University and the M.S. and Ph.D. from Stanford University. She is currently Professor and Coordinator of Electrical Engineering at the University of San Diego. Her teaching and research interests include electronics, optoelectronics, materials science, first year engineering courses, feminist and liberative pedagogies, and student autonomy. Dr. Lord served as General Co-Chair of the 2006 Frontiers in Education Conference. She has been awarded NSF CAREER and ILI grants. She is currently working on a collaborative NSF-funded Gender in Science and Engineering project investigating persistence of women in engineering undergraduate programs. Dr. Lord’s industrial experience includes AT