whopresently are associated with academic programs with agricultural engineering roots.] It's probably fair to say that we have had some success at reforming ourselves from theagricultural engineering tied to one specific, but important, industry to the biological engineeringthat is based on a science instead of on an industry. In order to make the change thus far, we havehad to contemplate what things we did previously that had prepared us for the reformation, and howbiological engineering would be a natural extension of historical trends within agriculturalengineering. Some people have embraced the change easily; others still don't see the relevance ofbiological engineering to their careers. The result is a lot of repetition of the
operations in the manufacturing, sales, service andconstruction industries. Through the selection of the upper-level technical concentration, studentscan tailor their program, based on previous knowledge, to assist them in launching a career thatbest meets their needs and aspirations. Projects in cooperation with local industry, solving real-world problems, are required of all students in the BSET program.Since the fall of 1990 Engineering Technology has offered courses utilizing the videotape lecturesuccessfully demonstrated by the FEEDS system. Primarily using UCF campus and communitycollege locations, this system allows for maximum viewing freedom of the course material viatape without geographic or work schedule constraints. Emerging
, environmental aspects, quality and safety;professional responsibilities and ethics; and career opportunities for engineers.Both courses werecoordinated in a similar way in fall, 1995 with four instructors. Student enrollments in TCC 101and ENGR 164 sections are not normally coordinated. Both years we received assistance fromthe Engineering Dean's Office to assign incoming students at random to the paired sections.In the 1996 collaboration there were two groups of 28 students (totaling 12% of the enteringclass), each group taking a section of TCC 101 with me, paired with a section of ENGR 164taught by John O’Connell. The section classes were of the same length on mostly the same daysof the week, while the individual syllabi for the sections of each
of 2004, I truly had no idea what challenges and opportunities I wouldencounter over the next six years. My tenure as a grad student has been a whirlwind of classes,research, teaching, reading, writing, presenting, adversity, and fun. The lessons I learned alongthe way have helped to shape me both as a scientist and an educator; however I wish that I knewexactly what lay ahead during my graduate odyssey.The goal of this paper is to provide that road map, both incoming and current graduate students,through a series of stories and lessons I learned during my graduate career. My goal is toprovide fellow grad students with advice necessary to navigate the potentially tortuous path theywill encounter such as taking classes, getting into the lab
Science Resources Statistics, Women, Minorities, and Persons with Disabilities in Science and Engineering: 2009, NSF 09-305 (Arlington, VA; January 2009). Available at http://www.nsf.gov/statistics/wmpd/.13 A National Analysis of Diversity in Science and Engineering Faculties at Research Universities," Dr. Donna J. Nelson, Norman, OK. January, 2005. Available at http://chem.ou.edu/~djn/diversity/briefings/Diversity%20Report%20Final.pdf14 Handelsman, J., N. Cantor, M. Carnes, D. Denton, E. Fine, B. Grosz, V. Hinshaw, C. Marrett, S. Rosser, D. Shalala, and J. Sheridan, Careers in science. More women in science. Science, 2005. 309(5738): p. 1190-1.15 Svarovsky, G.N. and D.W. Shaffer, Engineering girls gone
AC 2010-839: INSTITUTIONAL ETHNOGRAPHY: A RESEARCH METHOD TOINVESTIGATE THE WORK-LIFE EXPERIENCES OF WOMEN FACULTYMEMBERS IN STEM DISCIPLINESDina Banerjee, Purdue University Dina Banerjee is a post-doctoral researcher in the Research in Feminist Engineering (RIFE) group. Her primary responsibility is the study of the career-related experiences of the women and minority faculty members of the STEM disciplines of Purdue University. She graduated with her PhD from Purdue University in May, 2009. After her admission in Purdue University in 2002, she graduated with her third Masters with sociology major in 2004. Her areas of specialization are gender, work and occupation; development and social change
. “Attitudes are the ways one thinks and feels in response to a fact or situation.Attitudes reflect an individual’s values and world view and the way he or she perceives,interprets, and approaches surroundings and situations.”6 It is further explained that during theundergraduate experience future engineers need to begin developing supportive attitudes, andthat these attitudes will need to be modeled by those charged with their education, the staff andfaculty. The aim being that students can model these supportive attitudes themselves upongraduation, or at least be aware of them.6 The author feels that responsible social behavior fitsinto one of these professional attitudes. The disastrous effects of alcohol abuse on any career arewell know, and sadly
-34.” Marriageable material indeed — at least, in this article, the newspaperdoes not publish Cobb’s home street address. This is in contrast with the 1954 story in theDetroit News27 of Pieti (whom we met above) who had become “the first woman automotiveengineer officially to represent Chrysler Corp.” and who “lives with 10 other career girls in thechocolate brown and powder blue house at 825 Chicago, known by the girls’ dates as MantrapManor.” Here, women engineers were clearly positioned as the sexual objects of men.Not surprisingly perhaps, there was scant profiling of married women as engineers, or of lesbianengineers. One married engineer was described28 in 1958 as a “30-year-old green eyed blond”who is described exotically with her
AC 2010-387: TECHNICAL ENROLLMENTS AND MATHEMATICALPEDAGOGYAndrew Grossfield, Vaughn College of Aeronautics Throughout his career, Dr. Grossfield combined an interest in engineering design and mathematics. He earned a BSEE at the City College of New York. During the early sixties, he obtained an M.S. degree in mathematics part time while designing circuitry full time in the aerospace/avionics industry. As a Graduate Associate, pursuing a doctoral degree at the University of Arizona, he was uniquely positioned as both a calculus teacher and as a student taking courses in applied mathematics. He prepared and attended lectures, concurrently, which developed his acute sensitivity to differences
industry and academic institutions on theimportance and urgency of reflecting the impact of the SoC paradigm shift in engineeringeducation, as traditional programs, especially at the undergraduate level, have not keptpace with this evolution [1]. Recognizing the acute national demand for a new breed ofSoC engineers, our project proposes an innovative curricula prototype that cuts across theartificial course boundaries and introduces SoC knowledge through vertically-integratedand problem-oriented laboratory experiments [2]. In addition, we value the important rolethat community colleges play in starting students on the road to engineering careers, as Page
unique to each of thesister disciplines on the same campus. We also consider relationships between curricularcontent and the identified body of knowledge as reflected in this set of curricular exemplars. Page 15.1071.2IntroductionThe education of highly qualified software engineers who function effectively in multiple sectorsof our society and our economy is critical to the future of modern society. Evidence of this isfound in multiple sources. US News and World Report reported on December 28, 2009 thatsoftware engineering is among the top 10 careers identified for 2010.1 As is noted in that article,“There is an “app” for everything these days
thereby affecting their future careers more are than all theirprospective employers. Engineering faculty members can leave their mark on theprofession and society as a whole. This dynamic role involves the responsibility toteach well, to create enthusiasm and respect for the calling of engineering, and in themean time to develop a sense of professionalism in students at all levels.Your Excellencies, Ladies and GentlemenFaculty members should possess an appropriate balance between technicalproficiency and teaching effectiveness. Practical technical experience in non-academic settings is also a valuable asset for potential educators. Effective use ofcommunication skills is a critical qualification for successful teaching. Mobility offaculty members
, steps must be taken to motivate students to choose transportation as a career.”The demographic and workforce trends, along with the projected transportation workforce needsof the future, indicate that developing future transportation professionals requires effectivestrategies to gain the attention of students. These efforts need to proactively address increasingdiversity (e.g., women and minority populations), which increases the size of the pool ofavailable professionals, in contrast to a reactive approach that is based on competing for talentfrom the limited existing pool7,8.University-based transportation engineering programs play a critical role in transportationworkforce development. Several opportunities have been identified to
preference for active over reflective learning with no significantdifference between the mean preference (p = 0.685). The strong emphasis on laboratoryexperiences in Engineering Technology curricula supports active learning styles. Contrary topopular anecdote, these results indicate that students do not exhibit a strong preference for activelearning over reflective learning at the early stages of their undergraduate academic career. Thissuggests that active learning experiences including laboratory exercises and interactive problemsessions may provide a slight learning advantage over reflective activities (homework, reports)for students at this stage. Active learners typically prefer group learning over individual learningactivities.Each group in
. 34,35,36,37Students who participate in dual enrollment have been shown to be more likely to complete highschool, enroll in college, bypass remedial coursework, make timely progress toward a collegedegree, and incur less college expenses. 35,36,37 Currently, dual enrollment is available in themajority of high schools38 and colleges. 39 However, only five percent of high school studentsreport taking college courses and most programs serve only higher achieving students. 39,40 Inaddition, dual-enrollment offers benefits for career and technical education (CTE) students aswell as secondary students. For example, one study found that CTE students in dual enrollmentcompared to those not in dual-enrollment were more likely to pursue a bachelor’s degree. 35Overview
. Sherri S. Frizell is an Associate Professor in the Computer Science Department at Prairie View A&M University (PVAMU). Her research interests include human computer interaction, educational technology, and computer science education. She is very involved in activities to promote the academic and career success of women and minorities in computer science and engineering. Dr. Frizell has served as mentor to minority students participating in the Texas A&M University System Louis Stokes Alliance for Minority Participation (LSAMP) Program and the LSAMP Bridges to the Doctorate Program. She is the recipient of the 2009 PVAMU College of Engineering Outstanding Teacher award. Dr
practice of engineering can be unappeasable and difficult, the reason why so many students shy away from choosing it as a career. “Engineering…is an unforgiving and demanding environment…for students to succeed as engineers, they must acquire skills that go far beyond theories, simulations and exam- taking ….there is absolutely no substitute for the hard edged technical and business skills that are required to bring products and projects to market.” ~ Bernard M. Gordon, founder of NeuroLogica Corp., founder & former chair of Analogic Corp., and co-founder of Epsco Inc. “[Chuck House] was a Hewlett-Packard engineer in the 1960s, eager to build a large
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
mind X 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 session is designed to teach structured concept generation, an important engineering habit ofmind. Brainstorming, mind mapping and concept sketching are authentic engineering practicesthat are used in educational and professional settings.Diversity. This year is the American Society for Engineering Education’s “Year of Action onDiversity.” It is
Workshop on Engineering Education “Authentic Engineering: Representing & Emphasizing the E in STEM” Presented by Dassault Systems Saturday, June 13, 2015 8:00 A.M. – 5:00 P.M. Sheraton Seattle | Seattle | WA X 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):Participants
engineers get multicultural experience today atearlier stages of their lifelong learning process due to globalization: students can change severaluniversities located in different parts of the world to get advanced engineering education degrees.Another key point for discussion is that on the other hand, many engineers gain all their degreesin home countries. In this case, multicultural component becomes predominant in their continuedprofessional growth when they first face multicultural environment as a part of their career in atransnational company.A promising approach offered to reveal the influence of multicultural environment on continuedprofessional growth of engineers is to select regions with strong multiculturalism and intensiveengineering
Space workforce, or ALLIES. Initially, the ALLIESpartnership was centered within engineering design classes at CPUT and UAH. Engineeringdesign tools and methodologies were shared as well as the establishment of a focus upon thedesign and development of Science, Technology, Engineering, and Mathematics (STEM) toolscreated by the CPUT and UAH engineering students. The STEM tools are intended to providekindergarten-through-grade-twelve (K-12) students, both in the United Sates (US) and SouthAfrica, an intuitive, hands-on learning experience in order to encourage the younger students topursue a STEM education and, ultimately, a STEM career. During the design process, theengineering design students visit the K-12 schools in order to incorporate the
Hour Excel due*—02 Helix Bb due Week 3 Foundation--Programs Cards Collected—03 Card Bb due Week 4* Groups*--Programs* 04 Acronyms Bb due Week 5* Language* --Oui / nein / si Da / no – Spill Czech Jabberwocky— 05 Bb due --Programs Week 6 Assessment or Career Fair GPA Calculation*-06 Bb due Week 7 Figures, Charts, Graphs Thermo—07 Bb due Week 8 Scheduling / Advising 08 Bb due Week 9 Safety MSDS R2 and units ABET & SOE—09 Unit Bb due Week 10* Engineers in context LD50—10 Safety Bb due Reflective Paper One* due Week 11 McMahon Lecture McMahon Lecture w/ ENGR 360
engineers from different cultures• Cross cultural communication (intercultural communication skills; strategies; comparative analysis)• Problem solving involving scientific knowledge from multiple disciplines being applied to non-US centered problems (not just problem solving; it’s why we need the engineers; understanding of cross cultural similarities and differences in practice; ability to adapt to a project to local circumstances)• World view (understanding impacts of global connectedness)• International professionalism (ability to articulate global engineering practices in general and how their career as a future engineer impacts engineering practices globally)• Curiosity• Self-cultural awareness (aware of one’s own cultural perspective
grant from the Siemens Foundation as part of an initiative to encourageminority students to consider science and engineering as a career, and to increase the number ofminority students submitting research projects to the Siemens-Westinghouse Competition inMath, Science and Technology. Each team consisted of 2-3 high school students, a teachercoordinator who had spent time at Georgia Tech in a research laboratory as part of the 2003GIFT program, and the personnel from the Georgia Tech laboratory. The students were recruitedduring the fall of 2003, and encouraged to attend the regional Siemens Westinghousecompetition at Georgia Tech. During the 2003-2004 school-year, they were encouraged to workto become familiar with the research lab, to define
or mismatched understandingscan lead to inappropriate career decisions, ineffective curriculum, and poor performanceevaluations. This paper describes a process and defines the profile of an engineer performingwell in professional practice. Developed with input from both academic and non-academicengineers, the profile presents technical, interpersonal, and professional skills or behaviors thatalign with key roles performed by the engineer. The profile is a valuable resource for educatorsand for students aspiring to become high performing professionals in the field of engineering.IntroductionSociety holds high expectations of people in professions entrusted with the well-being of peopleand society as a whole. The engineering profession, for
define a coherent policy for graduate development of its domestic graduateengineering workforce whose professional careers are centered on creation, development and leadershipof new and improved technology in Industry.“…it is a lack of adequate educational training rather than ‘outsourcing’ that poses the greatest threat tofuture American prosperity…the better approach is to intensify efforts to increase the skills andknowledge of the U.S. Workforce.” Allen Greenspan, Feb. 20, 2004If the U.S. is to remain preeminent in creating new innovative technologies through engineering toenhance its economic prosperity and national defense, the U.S. system of engineering graduate educationmust remain the world’s leader - and new
process of inquiry for the course. Students are also directed to campus offices and services providing academic counseling, tutoring, and assistance in acquiring learning and study skills.Spring Semester Courses:• MATH 185: College Algebra covers complex numbers, roots of polynomials, exponential and logarithmic functions, conics, and binomial theorem.• CE 198: Supplemental Instruction for Math 185 provides assistance in comprehending difficult math concepts and maintaining a timely schedule for completing quizzes and exams,• CHEM 111G: General Chemistry I provides instruction in descriptive and theoretical chemistry.• PHIL 240G: Ethics for Engineering and Scientific Careers is an examination of ethical dilemmas that challenge
Education Annual Conference & Exposition” Copyright © 2005, American Society for Engineering EducationThe most frequent explanations provided by faculty and administrators for student fallout tend tofocus on “poor preparation” or “lack of discipline” of incoming first-year students. There issufficient data to support the notion that mathematics and science education in the United Statesis failing to prepare high school graduates for careers in mathematics and science. Other studies,however, suggest that the loss of majors from mathematics, science, and engineering disciplinescame from “a pool a disproportionately able undergraduates”. [2] Data compiled regardingengineering and computer science students at CSU, Chico who
thoroughly enjoyed taking a very fun, creative and original way for me to present my research on francium by making the francium quilt.” “It allowed me to use my computer skills from previous classes.”I use this project as an instructional demonstration tool when teaching relevant topics inmy classroom. For example, I take the copper periodic table piece to the classroom whendiscussing oxidation and reduction and electron configuration. I show the francium quiltwith its unit cell drawing to talk about crystal structures. I display the projects topromote science and diversity awareness during public outreach activities, such asCollege Open House and TWIST (Teen Women in Science and Technology) Career Dayat Kansas State University at Salina