assistants (pp. 33-45). Thousand Oaks, CA: Sage Publications.13. Crede, E., Borrego, M., & McNair, L. D. (2010). Application of community of practice theory to the preparation of engineering graduate students for faculty careers. Advances in Engineering Education, 2(2), 1- 22. Retrieved from http://advances.asee.org/vol02/issue02/papers/aee-vol02-issue02-p04.pdf14. Cox, M. F., Hahn, J., McNeill, N., Cekic, O., Zhu, J., & London, J. (2011). Enhancing the quality of engineering graduate teaching assistance through multidimensional feedback. Advances in Engineering Education, 2(3), 1-20. Retrieved from http://advances.asee.org/vol02/issue03/papers/aee-vol02-issue03-p04.pdf15. Matusovich, H. M., Lee, W. C., Janeski, J
preparation for a career in anyengineering field2.With the importance of senior capstone courses so high, the challenges associated with them areequally high, both in number and scope. Challenges frequently associated with senior capstonedesign courses, as described by others1 and experienced in our course are as follows: 1. An atypical course format: Typical undergraduate courses follow the classic structure of lectures, homework, labs, and exams. Capstone courses are centered on nontechnical lectures, project benchmarks, student presentations, and design reviews. The nontraditional course format is jarring to many students. 2. Unfulfilling first semester (for two semester capstone sequences): When capstone design is a
different undergraduatecourses and realities, to prove its robustness.References:[1] L. Shuman, C. Atman, E. Eschembach, D. Evans, R. Felder R, P. Imbrie, J. Mc Gourty, R. Miller, K. Smith, E. Soulsbi and C. Asilha and Yokomoto, "The future of engineering education," in 32º ASEE/IEEE “Frontiers in Education Conference”, 2000.[2] E. Smerdon, "An Action Agenda for Engineering Curriculum Innovation," in 11th IEEE-USA Biennial Careers Conference., San José, California, 2000.[3] I. Pant and B. Baroudi, "Project management education: The human skills imperative.," International Journal of Project Management, vol. 27, pp. 124 -128, 2008.[4] C. Rojas Cruz, "Aprendizaje basado en proyectos, experiencias formativas en la práctica
assignments.The intent of the game is to increase student interest and engagement in the course, leading toimproved attitudes toward the laboratory and increased knowledge retention. Furthermore, thegamification elements were used to incentivize certain actions that we believe would bebeneficial to students' future careers, be they in academia or the work force. Hopefully, studentswould perform the extra tasks and allow them to become habit, contributing to their futuresuccess. The game was conducted during the Fall 2012 semester using a class of 51 seniors.The students were predominantly 20-22 years old, and there were 14 female students in the class.1.1 Gamification as an Educational Tool:Over the past several decades, video games have become
is an active Affiliate Re- searcher at Lawrence Berkeley National Laboratory, Berkeley, CA, focusing on the energy efficiency and assessment for IT equipment in Data Centers, and continues this work as a Consultant. He is also a mem- ber of the San Diego Gas and Electric’s Public Advisory Group for ’Workforce Education & Training’. Prof. Ben Radhakrishnan has an MS from State University of New York, Buffalo, NY, M.B.A (Uni- versity of Phoenix), and Sustainable Business Practices Certification from University of California, San Diego. His previous corporate careers include Qualcomm (Director, Technology Program Management) and Senior Program & Design Manager in Lucent Technologies.Dr. Shekar Viswanathan
Paper ID #5914Introducing Calculus to the High School Curriculum: Curves, Branches andFunctionsDr. Andrew Grossfield P. E., Vaughn College of Aeronautics & Technology Throughout his career Dr. Grossfield, has combined an interest in engineering and mathematics. He earned a BSEE at the City College of New York. During the early sixties, he obtained an M.S. de- gree in mathematics at the Courant Institute of NYU at night while working full time as an engineer for aerospace/avionics companies. He studied continuum mechanics in the doctoral program at the University of Arizona. He is a member of ASEE, IEEE and MAA
speaks to both the complexity of the highlighted projects,and to a limitation of the taxonomy. One example of an award that represents the interplaybetween boundaries is “UT3” (UToledo. UTeach. Utouch the Future); it is represented by apurple circle on the macro/meso-scale line. UT3 is a professional development program forsecond career science and math teachers who are Noyce Scholars (recipients of the Robert NoyceScholarship for STEM Professionals). Once the Noyce Scholars’ pre-service training ends,workshop participants can continue to receive support through an online learning community.So, although projects containing online communities are typically classified as Macro-scaleproject, the exclusivity of the community qualifies it for Meso
be supported as they translate their findings and processes into newcurriculum initiatives for their own classrooms. Teacher interns and pre-service teachers (seniorscience education major undergraduates) will be an integral part of the program, rigorouslypreparing them even before their careers as in-service teachers. Twelve teachers, six engineeringfaculty and six experienced engineering undergraduate students will be formed into six researchteams. During a six-week summer program, each team will conduct intensive work on variousaspects of smart vehicle development initiative. Teachers will also work with educationprofessionals to develop classroom activities based on the active research areas in which they areinvolved. Proposed RET Site
engineering for its own sake, to 81.4 87.3 Psychological experience enjoyment that is inherent in the activity. Motivation to study engineering due to the belief that Social Good 76.2 83.1 engineers improve the welfare of society. Motivation to study engineering due to the belief that Financial 66.1 72.6 engineering will provide a financially rewarding career. Mentor Motivation to study engineering due to the influence of
conducted the initial interviews in 2008. I used to hold a very mechanistic model ofchange in human systems, replete with coping mechanisms when people did not behave in theprescripted ways. Having considered the impact of the Changemakers' careers and listened totheir stories, my current belief is that our thoughts have a more powerful role in what occurs tous as the physical world than I had previously considered. This is a concept that the Chileanbiologists, Humberto Maturana and Francisco Varela have captured in the aphorism, "Allknowing is doing.16" The evidence that he offers for this coupling of cognition and "real"-izationis embedded in the basis of biological life forms. In terms of the partially-virtual research collaboration that
Education.Major Hans J Thomas, United States Military AcademyLt. Col. Shad A Reed, United States Air Force Academy Lt Col Shad Reed is an Assistant Professor in the Department of Aeronautics at the United States Air Force Academy. He is in the second year of this his second teaching assignment. Primary interests include engineering education research, aircraft design and aircraft structures.Lt. Col. Bruce Floersheim, U.S. Military Academy LTC Bruce Floersheim, Ph.D. P.E. was commissioned from the United States Military Academy as an officer in the Corps of Engineers in 1989. He has served in the United States, Turkey, Bosnia, Germany and Iraq during a career spanning over 23 years. His assignments include platoon leader, company
the course.INTRODUCTIONThe development of digital media has made possible many varying and innovative deliverysystems and instructional methodologies for university courses. The motivations for developingfully online or blended courses are many. Some of the motivating factors are tied to the learners’needs while others are linked to organizational and social factors1.Addressing Learner Needs. A first need that online and blended instructional formats address isan extended access. The traditional student life does not work for all those seeking to learn. The“non-traditional student” includes older students wishing to resume an abandoned college career,employed people wishing to continue an education, students with family commitments
to apply their newly acquired training and education in engineering work, The freedom to select their own solutions to an engineering problem The opportunity to prove primarily to themselves, that they are now empowered for a career in engineering.The traditional educational environment lacks a “„playful‟ climate where students can explore„new spaces or concepts‟2. By contrast, students greatly enjoy the freedom they are given incapstone courses. They are enthusiastic, thrilled to perform research work; they develop strongmotivation to overcome challenges and to succeed with their projects, which can greatly improvetheir learning skills and self-confidence. Challenges are just means to trigger their
informed by two quotes from the PROPEL application: Because Hispanic university students are often reluctant to dedicate themselves to the STEM fields, believing the profession will not integrate well with their community- minded career aspirations or that the time commitment to STEM majors will prevent them from actively engaging with their community, we created new STEM service learning opportunities. These will focus on innovation in addressing sustainability issues in the community, state and country. Service learning is a critical component in attracting Hispanic and low-income students to STEM degrees. Hispanic STEM students in particular express a desire to pursue a chosen profession
sequence,the user needs to check the calibration box that has been built. If the support material roads don’tlie directly on the center of the model material, the students need to check the tightness before heor she can determine which values need to be changed and by how much. And then the studentsneed to input the offset increment values for x, y and z dimension in the FDM status window andsend the new settings to the machine.It is known that there is a need to improve the skills given to the future workforce, and thatonline courses are trying to be applied but the career that has the lowest implementation of onlinetechniques in their given courses is engineering1, 2. Since online techniques are not being fullyapplied to engineering courses
,because it enables a cognitive awareness of the profession that should inform a large part of theirlearning over their undergraduate career. Achieving such a goal at the freshman level presents asignificant challenge, but would produce significant benefit by allowing such an awareness toinform all of their future learning. While many studies have examined how students engage inengineering design, none have looked at how students understand engineering design, and howpersonal definitions can influence undergraduate students’ perspectives on their studies and theprofession.Typically, in defining engineering design, instructors rely on textbooks which arrive with rich,well thought out, and thorough definitions of engineering design. Such definitions
think critically about scientific and engineering techniques. While these resultscould also indicate that freshmen students may feel overly confident in their ability to performcertain tasks, student perceptions towards their abilities in a career is an important factor forretention and success17.Progression in their experiments was tracked via scores obtained in the Innovation Portalelements from the beginning (Element A) to the end of the semester (Element L). Table 1demonstrates the average scores of freshmen and sophomore journal entries. In the beginning ofthe semester, sophomores demonstrated better problem-solving skills than freshmen. However,by the end of the semester, there was no difference between the groups suggesting a greater
, and teaching- focused culture at our institution make it very challenging to perform fundamental research. Mentoring undergraduate students in research during the summers takes away a considerable amount of time that could have been used for fundamental research. On the other hand, undergraduate research is very valuable for improving one's teaching career. For example the undergraduate research activities allow the faculty to learn modern technology and modern problems that eventually trickle down into the classrooms. Being in the business of teaching, undergraduate research can be looked upon as teaching students the skills and knowledge on how to conduct research. These skills will most likely benefit
importanceof ethical thinking. The students are told that careers can be ruined, fortunes can be lost andmarket values can be shrunk – sometimes to the point of complete liquidation in bankruptcy –when people ignore ethics. They are also told that we will not be discussing ethics in a highlytheoretical or philosophical manner, both because time does not permit such a discussion in asingle short lecture, and because the lecture’s intent does not call for it. In addition, they are toldthat the lecture is not so much about engineering ethics as it is about business ethics for Page 23.449.4engineers. That is, the focus is not on technical engineering
Students 28 34 29 20 12 16 8 32 70 237 Female Students 7 7 5 8 8 13 2 12 2 77 % Female Students 20% 17% 15% 29% 40% 45% 20% 27% 3% 25%Table 1: Allocation of students to different areas.It is interesting to note the overall and gender wise distribution of students among topics. Sports, business, anddefense studies earned better patronage. Female students chose traditional areas like fine arts, performing artsand medicine. Although they have chosen engineering career, their extracurricular interest seemed to havefollowed the
Technical Council Committee 2-32. “Attracting Students to a Professional Career in Transportation Engineering.” ITE Journal, 60(1), 1990, pp. 42-48.11. Handy, S., Weston. L., Song, J., and Lane, D. “Education of Transportation Planning Professionals”. Transportation Research Record, 1812, 2002, pp. 151-160.12. Luna, R., Hall, R., Hilgers, M., Bham, G., Morris, C., and Morrison, G. “Introduction of GIS into Civil Engineering Curricula.” 2008 ASEE Annual Conference and Exposition, Pittsburg, PA.13. Luna, R., Hall, R., Hilgers, M., and Ge, L. "A GIS Learning Tool for Civil Engineers", Intl. Journal of Engineering Education, (ISSN:0949-149X), 26(1), 2010, pp. 52-58.14. Learn Civil GIS, “Transportation.” (July 1
excellence with a multitude of other skills including communication, teaming, ethicalreasoning, and contextual analysis.2 Yet, without exposure to real-world applications in thecontext of a technical education, students may neither develop these important skills nor gainsufficient motivation to pursue careers in engineering.There are many successful examples of ways in which real-world problem solving has beenintegrated into engineering curricula: service learning (e.g., the EPICS program3), industry-sponsored capstone design experiences, and cooperative learning internships. One commonfeature of these types of experiences is that they are often superimposed on top of a moretraditional curriculum whose courses focus on fundamental engineering
above.III. a) RecruitmentFor the first two summer camps, the main recruitment activity consisted of visits to local highschools by faculty members of the Department of Engineering. Applications were distributedand students were required to submit a letter from their math or science instructor explainingtheir performance in math classes. The applications were reviewed and priority was given tothose students who struggled with math according to their grades and to the opinion of their highschool instructor or counselor. The idea here was to recruit not the best students who wouldprobably succeed without any intervention. The philosophy was that by building some self-confidence in the students in math, they would select a STEM field as a career
number of boards; including the QLD Division committee of Engineers Australia and its sub-committee on Educa- tion Linkage (input into K12 and Tertiary Education). His research interests are in engineering education, engineering management, and renewable energy. He is a recipient of a USQ Faculty Award for Excellence in teaching (Early Career) 2008, USQ Associate Fellow 2009, and USQ Senior Fellow 2010. He served as the 2012 QLD President of Engineers Australia. Page 23.95.1 c American Society for Engineering Education, 2013A qualitative study into the innovation and technology
senior consultant. He has taught and developed undergraduate and graduate courses in electronics, power systems, control and power electronics, electric machines, instrumentation, radar and remote sensing, numerical methods and data analysis, space and atmosphere physics, and physics. His research interests included power sys- tem stability, control and protection, renewable energy system analysis, assessment and design, power electronics and electric machines for wind energy conversion, radar and remote sensing, wave and tur- bulence simulation, measurement and modeling, numerical modeling, electromagnetic compatibility and engineering education. During his career Dr. Belu published several papers in referred
engineering studies at the University of Toronto. She is pursuing a certificate of global engineering and working towards an optional fourth-year thesis with the Institute for Leadership Education in Engineering (ILead) at the University of Toronto. Previously, she worked as a pilot analyst summer research student, with both ILead and Patricia Sheridan, to develop a team effectiveness inventory for guided reflection and feedback. Lobna was responsible for performing quantitative and qualitative analysis of the pilot project findings and for modifying the proposed inventory based on analysis. Lobna is passionate about engineering education and plans to pursue a career path in the field.Jennie Phillips MA, University of
usethis device in their professional careers. Page 23.161.9 9 Baseline Student Knowledge Survey – Unsaturated SoilsSurvey Methodology Once the team was established we began the preliminary process of developing a surveyto be used to collect baseline data regarding what the average undergraduate knows aboutunsaturated soils once he or she has completed a “typical” geotechnical engineering class. Thissurvey was designed to measure students’ knowledge about unsaturated soils at the end of thenormal introductory geotechnical engineering
/facilitated by the College of Engineering would make Ohio State grads markedly more attractive to employers.Increase Language Course Enrollment I wanted to take a foreign language, but it would not have counted toward graduation. Introduce a language/culture course pertaining to the topics listed above (not so much an actual course to learn a language but rather how to diminish borders, per say.) We are in a career where it can be very important to come across well to other nations. I always thought it was strange that this requirement was waived for engineers I feel as though most engineering jobs now do not require much knowledge of a foreign
: Role of AE3xxx in the curriculum aerodynamics, structures, vehicle Page 23.25.2 dynamics and control, propulsion, andinterdisciplinary design to be well prepared for careers in aerospace and related engineeringfields. They will be well-trained to function as professionals who can formulate, analyze andsolve problems that may include economic, social and environmental constraints. And finally,they will be prepared to communicate well, function well in the global environment