engineering workforce due to inadequate secondary schoolpreparation, the absence of academic support at many institutions, lack of academically intensivesummer programs, and financial constraints, among others [1]. Numerous programs exist torecruit minority students into higher education [2]. Among these are early intervention programs,such as summer bridge programs; education and mentorship programs initiated by professionalassociations and private or government organization, dual or concurrent enrollment programsbetween high schools and community colleges; pre-college programs to attract students tospecific careers such as Precollege Initiative for Minorities in Engineering; school-collegecollaborative partnerships between community- or four-year
operation and Mission event timelines (METs) • Development of multi-level design solutions • Analysis of alternatives (AoA) • Modeling and simulation • Integration and test engineering and specialty engineering – i.e., human factors, reliability, maintainability, et al - to avoid showstopper surprises that impact system acceptance, delivery, and user satisfaction. • Verification and validation (V&V) • Et alAnecdotal evidence based on the author’s experiences suggest that many engineers are estimatedto spend on average from 50% to 75% of their total career hours collaborating with othersconcerning the engineering of systems – i.e., SE - for which they have no formal education.Aerospace and defense tends
tried to make faculty members believe that process andprocedures of the evaluation are reliable, valid and fair.5. Conclusion In Korea, universities and colleges have concentrated on ranking and classifying thefaculty by the number of publication in SCI-rated research journal, which lead to indifference toteaching of most engineering faculty. Now we try to find the way how to get balance betweenresearch and teaching. It is time for the faculty in Korean engineering colleges to develop facultyownership for their own career growth and to harmonize teaching and research. Course portfolios can be a very effective method for identifying and validating quality ofteaching. Most engineering faculty members in Korea agreed that the
-girlssetting, increases girls’ interest in STEM and willingness to pursue STEM as a career. A numberof studies have highlighted robotic’s ability to increase student’s interest in science5,7. Howevermost of these studies have not looked at implementing robotics programs in all female settings.A secondary goal of this work is to examine new techniques used for survey data collection.Most used paper questionnaires to obtain responses, for this work we used a Nintendo Wii as anadditional data collection tool. This allowed data to be collected more easily and accuratelycompared to paper questionnaires. The robotics program in this study was implemented at an allfemale high school located in Philadelphia, PA. Previous work performed by Weinberg et al
data in this manner, one corrective action would be to add into the curriculumreinforcement activities in upper division courses. The IEEE-SME exam had a better correlationto GPA than did the core exam by a factor of four. The IEEE-SME correlated relatively wellwith both the core exam and with student GPA.One major issue with both exams is response time in implementing corrective actions. Anassessment at the end of a student’s undergraduate career or as in the case presented in thispaper, in the middle and at the end of a colligate career, means that corrections to a course maytake two years or even longer. Reduction of the feedback latency can be accomplished byimplementation of a per-course assessment process where an assessment is made at
Success Alliance. She began her career as a statisti- cian in Washington, D.C. Since then, she has taught mathematics at a variety of post-secondary institutions and has worked as a director in education-related non-profits. She earned an M.S. in mathematics from the University of North Carolina, Chapel Hill. Page 25.769.1 c American Society for Engineering Education, 2012 Increasing the Retention of Under-Represented Students in Engineering Through Connections with An Industry Advisory CommitteeAbstractMeeting the increasing demands from
, but in terms of his career, the almost simultaneous commencement of the Space Shuttle Program in Nov. 1972 was to have far more impact. As a result, Kanipe was able to begin his career working on what he says was the most interesting project he could possibly imagine: the Space Shuttle. Kanipe became the Deputy Branch Chief of the Aerodynamics Branch in May 1990, and in March 1996 was appointed as Chief of the GN&C Analysis and Design Branch. Subsequently, he became the Deputy Chief of the Aeroscience and Flight Mechanics Division in Dec. 1998 and was selected as Chief of the Aeroscience and Flight Me- chanics Division in the Engineering Directorate at the Johnson Space Center in Jan. 2001. Subsequently
preparing for battle bots competition.BackgroundAttracting students to Science, Technology, Engineering, and Mathematics (STEM) fields is achallenge that has been addressed at all levels of K-12 education. Outreach programs aredesigned with the goal of attracting talented and motivated young students into careers focusedon STEM.Embry-Riddle Aeronautical University (ERAU) had an ongoing program of record in operatingsummer camps to provide outreach to students of varying age groups. The Residential FlightCamp1 had attracted campers that were interested in space technologies flight, air traffic control,and meteorology. This camp was run by the College of Aviation. ERAU was also activelyinvolved with residential camps and day camps for a variety of
students a positive element when they enter the construction industry and for theirfuture construction career. Therefore, adopting BIM to construction curriculum is necessary andbeneficial. However, a change of technology contents in courses requires significant updates onan instructor’s knowledge and much time and effort are required. This paper reports a suggestedapproach of integrating BIM in training construction engineering students to obtain knowledgeand skills of project scheduling and control in various courses within current constructionengineering curriculum, with a layout of course framework. Page 25.794.2Background of BIM TechnologyAs
projectdevelopment cycle. Table 1 lists seven engineering tasks occurring during a typical projectdevelopment cycle, which involve various analyses that can benefit from sensing and modelingtechnologies, as will be detailed later. We identified these tasks based on our teaching practice,detailed analyses of our construction engineering curriculum, and feedbacks of our studentsabout what are the most-needed skills for their career development in the construction industry.Sensing and Modeling Technologies for Construction Project DevelopmentThe seven engineering tasks listed in Table 2 pose various challenges to construction engineersduring a project development cycle. These challenges include: 1) time constraints, constructionsites change frequently and it
some engineering disciplines maynot learn these skills at all [6]. While prototyping methods are now a common part of the designprocess, few students are able to confidently create a machined physical model at the end of theircollege career [7]. It is important that students of all engineering disciplines have knowledge of Page 25.849.2milling methods so that they may utilize the technology in their careers [8].Additionally, CNC milling has become a viable resource in many industries. With advancementsin technology, the price of materials and CNC machines are no longer prohibitive and provide avaluable resource for quick, custom production
, and financialconstraints and difficulties. The complete program requires 203 credit hours, 163 from UACHand 33-40 credit hours from NMSU. The first cohort of students started at UACH in the fall of2007 and is currently enrolled at NMSU with expected graduation date of December 2011. SinceFall 2007, every semester an average of 20 students has been transferred from UACH to NMSUas part of this program. Despite the fact that the Dual Aerospace Engineering program wasoriginally designed to help Mexican students to attain a college degree in the US, it has thepotential to benefit students from the US. It is expected than in a short future, US students will bemotivated to start their college career at UACH in Mexico with the subsequent advantage of
, was that some students watching thevideo reported this to be a decision point in their careers. Some of the comments from students inthis category are shown below.This video really got me thinking. It made me realize how careless I can be sometimes, and howserious that really can be. For example, if I alone pour my used oil into the ground it doesn’t doas much, but when I do it repeatedly along with several others doing the same thing, it becomesa big problem. Not to just look at my actions in everyday life, but to look at how I should act inthe field. It isn’t enough to just design something to the specs. The specifications still allowenergy inefficiency and chemicals to be put into the environment, but what if I go above andbeyond? Instead
Sciences, Agriculture, and Management were crucial to the finalproduct. This diversity became a core strength for the team. One student manger noted that: The main reason I joined the team was to work on an interdisciplinary project and learn from peers with different backgrounds than my own. I wanted to learn to communicate with engineers, architects, etc. and work in a collaborative environment. I treated this project as a job and I feel my peers during the two years did the same. There is no doubt in my mind that it has prepared me for my future career. Broader Societal Impacts Although it wasn’t necessarily obvious at first, everyone on the Solar Decathlon team cameto appreciate the significance of this project in terms of
. The goals ofthe program are to: provide an understanding of what Aerospace Engineering is and possibleapplications and career paths; design and build fun and educational projects with students;provide advice on classes, professors, study habits, and general college life; host laboratorytours; discuss internships, research, and organizational involvement; handle tutoring sessions andoffice hours and motivate students about Aerospace Engineering.This paper will provide a framework for starting a mentoring program at your institution. Whilethis is not a new idea, the authors will discuss why the current structure was selected and otheriterations that have been utilized. The role of a mentor and mentee and the expectations of eachwill be detailed
, students also could relateto the importance of measurement and control of biological systems with an aim to maximize thebenefit from the system. The examples and laboratory exercises had allowed the students to relate therole of instrumentation for both measurement and control in variety of scenarios.The question on “I feel that skills I learned with respect to MATLAB have broader use to my futurecourses, and my career” also showed a significant difference between pre- and post- tests and positivelydemonstrated that repeated experience through multiple courses enforced the skills on using specificengineering tool and gain an understanding on lifelong professional implications of such skills. Some ofthe students from the class continued to use the
intellectual excitement for many thousands ofeducators, and continues to speak to the interests and ideals of many young people and mid-career professionals.So, what can be done to help teachers find new ideas that will attract and excite students to learndifficult subjects such as Mathematics and Science?There is only one answer: By helping teachers become themselves more interested and excitedabout these subjects! That means exposing teachers to the most exciting and the least understoodprofession which is engineering! In doing so we bring them examples and real life applicationsthat will help them correlate theory and controlled experimentation with reality.Thise paper presents a program initiated at “Our Lady of the Lakes University” and
. Later on, as financial situation permitted, we addedsome additional equipment. The list of original equipment used in the laboratory design is givenin Table 2. The overall cost of equipping 8 laboratory work stations was $22,340 that wasfunded from Carl D. Perkins Career and Technical Education Act funding. Table 2. List of the PV Laboratory EquipmentEquipment Source Quantity Price per each (US$)6W monocrystalline Si panel SunWize 8 74.505W polycrystalline Si panel BP Solar 8 69.505W amorphous Si panel
questions in each of the three surveys fall into one of four categories: team assessmentquestions, self assessment questions, evaluation of PBL lab and the class, and assessment ofenvironmental engineering (Figure 2). The pre-lab survey comprised 13 questions and wasprimarily used to collect learner self assessments in the areas of experience, knowledge and skillswithin the context of environmental engineering, as well as career options currently underconsideration. The post-lab survey comprised 21 questions. In addition to the questions fromthe pre-lab survey, the post-lab survey collected student assessments of team performance duringthe PBL lab. The end-of-semester survey comprised 17 questions - 9 from the pre-lab survey, 2new questions for
willlikely result in: 1. Confusion that could lead to uncertainty in knowledge gained from the lectures and formal lab exercises. 2. An inability to work with complex systems that cross disciplines. If the initial hands-on challenge is too hard, then skills like project planning and troubleshooting will not be properly developed. 3. Lack of confidence, especially in a student’s ability to understand areas that are not in the students' major. For example, a mechanical engineering student’s understanding of programming and/or electronics. 4. Discouraging students from either careers in mechatronics or applying for jobs with a mechatronic component. In other words, narrowing a student’s perceived career options.The
certified. He has since provided consul- tation and training to numerous industry-leading manufacturing organizations in process improvement, including Lean Manufacturing, Kaizen, Value Stream Mapping, and Sustainable Manufacturing. Starting his career in manufacturing as a machinist, Gonzales pursued higher education as a means to steadily progress to greater levels of responsibility and professional success. His experience and education led to numerous management positions in aerospace manufacturing. His business experience includes mate- rials management, quality, and manufacturing pperations. Prior to joining El Camino College in 2006, Gonzales served as a consultant and trainer in the aerospace manufacturing
in career and technical education. He taught for three and a half years prior to this in secondary career and technical schools in Indiana. In the past decade, he has published 11 refereed articles, and he has presented several times each year at state, national, and international conferences over the past 20 years. He currently serves as the Chair of the Department of Technology at Ball State University in Muncie, Ind. Page 25.152.1 c American Society for Engineering Education, 2012 An Approach to Incorporating Sustainability into a Manufacturing
. Christopher S. Greene, University of Saint Thomas Christopher Greene got his B.S. degree in electrical engineering at the University of Colorado, Boulder, and then did his master’s and Ph.D. at MIT, where he studied control theory. Following a 23-year career at Honeywell and another industrial company, he joined the University of St. Thomas School of Engineering. He is currently the Director of the Electrical Engineering program at St. Thomas and does research on the applications of control theory.Mr. Scott Edward MorganDr. Miguel Angelo Rodrigues Silvestre, University of Beira Interior Miguel Angelo Rodrigues Silvestre is an Assistant Professor at University of Beira Interior (UBI) in Portugal and an Integrated Researcher
globalization trends encourage furthereconomic and social interdependencies across disparate geographic regions. Given these trends,engineering educators are being challenged to provide engineering students with a variety ofglobal and professional competencies needed for career mobility and success. At the same time,many reformers are looking beyond traditional bodies of knowledge and skill sets to ask whatvalues, attitudes, and dispositions are important for future engineers. These kinds of “affective”characteristics comprise a key – and yet often overlooked – part of identity formation for manyprofessionals, including engineers. This paper argues that such attributes are especially importantfor global engineers, who require high levels of cross
Planning. Blanco earned his Ph.D. in physics at Penn State University and his master’s and bachelor’s degrees also in physics at CSU, Northridge. He has more than 35 years of academic, administrative, aerospace research, and management experience. He has supervised 14 master theses and 11 honor undergraduate theses, as well as supervised research and postdoctoral fellows. He has more than 30 peer-reviewed research articles and has participated in lead roles in research projects over his career in excess of $100 million. His area of expertise is experimental condensed matter physics, particularly in the characterization of semiconductor thin films used in the elec- tronic industry. Currently, he is leading the
young children exhibit an interest in engineering in their classrooms.Dr. Demetra Evangelou, Purdue University, West Lafayette Demetra Evangelou, Ph.D., is an Assistant Professor in the School of Engineering Education at Purdue University. She obtained her B.A. in psychology from Northeastern Illinois University, and a M.Ed. and Ph.D. in education from University of Illinois, Urbana-Champaign. She is a member of Sigma Xi Science Honor Society. Evangelou was awarded an NSF CAREER grant in 2009 and a Presidential Early Career Award for Scientists and Engineers (PECASE) in 2011. Evangelou’s current research focuses on engineering thinking, developmental factors in engineering pedagogy, technological literacy, and human
Illinois University, and a M.Ed. and Ph.D. in education from University of Illinois, Urbana-Champaign. She is a member of Sigma Xi Science Honor Society. Evangelou was awarded an NSF CAREER grant in 2009 and a Presidential Early Career Award for Scientists and Engineers (PECASE) in 2011. Evangelou’s current research focuses on engineering thinking, developmental factors in engineering pedagogy, technological literacy, and human- artifact interactions.Dr. Johannes Strobel, Purdue University, West Lafayette Johannes Strobel is Director of INSPIRE, Institute for P-12 Engineering Research and Learning and As- sistant Professor of engineering education and learning design and technology at Purdue University. NSF and
AC 2012-3515: UTILIZING PROJECT-BASED MULTIDISCIPLINARY DE-SIGN ACTIVITIES TO ENHANCE STEM EDUCATIONDr. Andy Shaojin Zhang, New York City College of Technology Andy S. Zhang earned his master’s in mechanical engineering from the City College of New York in 1987 and his Ph.D. in mechanical engineering from the Graduate Center of the City University of New York in 1995. Zhang’s research area includes materials testing, product design and prototyping, CAD/CAE, and mechatronics. From 2007 to 2009, Zhang served as a member of the Pre-engineering Advisory Commission of Advisory Council for Career and Technical Education of NYC Department of Education, which was designed to help high schools to enhance existing technology
ethics project as well as my other school work. You have been a great help to me over the past few years. I really appreciate how you went out of your way to help us when you did not need to. I feel that in doing so I have learned a very valuable lesson that I can look back on throughout my career. I am very glad that I made this mistake now when I could fix the problem rather than later and lose my job. I hope that the presentations we did can help the freshman be more aware of the situation and avoid making the same mistakes that we did. I am also excited to hear that you are writing a paper on the situation. I agree that our experiences could definitely benefit other young engineers elsewhere. Thanks again for
. Consequently, a successful career forbio/chemical engineers will require an adequate functional knowledge of RC guidelines. Anexposure to RC guidelines and its implementation can help chemical engineering students tobecome more marketable and get a head start with their careers.It is important to prepare chemical engineering graduates who will grow to become goodcorporate citizens. Recent industrial disasters (such as Deepwater Horizon spill, Imperial SugarRefinery explosion, Alumia plant accident in Hungary, etc.) have all pointed to a breach in RCand the possibility of engineering personnel’s involvement in making the wrong decisions cannotbe ignored. Thus it is important to cultivate chemical engineers with strong ethics and