. 3. I can apply the engineering design process to solve real-world problems. 4. I understand the role of engineering in society. 5. I believe that engineering contributes to everyday life. 6. The field of engineering offers solutions to important problems. 7. Engineers play a significant role in technological innovation. 8. Engineering is a field that requires creativity and problem-solving. 9. The work of engineers impacts environmental sustainability. 10. Creativity in engineering is fundamental. 11. Engineers must work collaboratively to be successful. 12. Ethical considerations are important in engineering. 13. I am aware of the broad range of careers available in engineering. Students are
Development, International Journal of Production Economics, Quality Management Journal, International Journal of Project Management, Management Decision, and Total Quality Management. He has served as a reviewer for NSF CAREER award (Innovation and Organizational Science Division).Sanjiv Sarin, North Carolina A&T State University Sanjiv Sarin is a Professor of Industrial Engineering and Associate Dean of the College of Engineering at North Carolina A&T State University. He received a Bachelors degree in Chemical Engineering from the Indian Institute of Technology, New Delhi and a Ph.D. in Industrial Engineering from the State University of New York at Buffalo. He is a member of ASEE and IIE, and a registered
into a carnivalatmosphere. The IT-Olympics is not just a competition, but rather a celebration of IT which isopen to the public. Family members, high school counselors, teachers and the general public canwatch the students in their quest to be the best or can explore IT careers and opportunities ontheir own. The competition floor is encircled with vendor booths for students to explore and talkto companies about IT careers or new technology. Even younger family members can enjoy theevent. There is an interactive Lego area just for their enjoyment.The real-time challenge concept stems from the two years of pilot project high school cyberdefense competitions that were the precursor to the IT-Adventures program.9 Cyber defensecompetitions have
AC 2011-2460: STUDYING THE IMPACT ON MECHANICAL ENGINEER-ING STUDENTS WHO PARTICIPATE IN DISTINCTIVE PROJECTS INTHERMODYNAMICSMargaret B. Bailey, Rochester Institute of Technology (COE) Margaret Bailey is Professor of Mechanical Engineering within the Kate Gleason College of Engineer- ing at RIT and is the Founding Executive Director for the nationally recognized women in engineering program called WE@RIT. She recently accepted the role as Faculty Associate to the Provost for Female Faculty and serves as the co-chair on the President’s Commission on Women. She began her academic career as an Assistant Professor at the U. S. Military Academy at West Point, being the first woman civil- ian faculty member in her
AC 2011-1868: TRANSFORMING THE PRACTICES AND RATIONALEFOR EDUCATIONAL PROGRAMS TO AID ACADEMIC RESEARCHERSIN TRANSLATING RESEARCH INTO INNOVATIONS AND VENTURESJudith Giordan, NCIIA Judith C. Giordan has held executive and leadership positions in R&D and operations spanning a 30 year career. Currently, Judy is Director of VentureWell (www.venturewell.org) a venture development and funder; Managing Director of Steel City Re, LLC, an intangible asset services firm; Senior Advisor to the National Collegiate Inventors and Innovators Alliance; a member of the Board of Directors of start- up companies, and Professor of Practice in the College of Science and Technology of the University of Southern Mississippi from
University of Northern Colorado, a M.S. in Petroleum Engineering from the University of Wyoming, and a Ph.D. in Mechanical Engineering from the University of Idaho. She is a licensed Professional Engineer.Capt. Susan Donner Bibeau, U.S. Coast Guard Captain Bibeau is a 1980 graduate of the United States Coast Guard Academy, one of the first women to graduate from the U.S. military academies. Her 30 year career with the Coast Guard includes two commands, six years of sea duty, and a nine year assignment as Director of Admissions at the Coast Guard Academy. She will join the staff of Three Rivers Community College in April 2011 as the Director of Student Development. Captain Bibeau holds masters degrees in Systems Management
AC 2011-111: DISK BRAKE DESIGN CASE STUDY IMPLEMENTATIONMETHOD AND STUDENT SURVEY RESULTSOscar G Nespoli, University of Waterloo Oscar Nespoli is a Lecturer in Engineering and Mechanical Design and Director of Curriculum Devel- opment in the Department of Mechanical and Mechatronics Engineering at the University of Waterloo (Waterloo). Oscar joined Waterloo following a 23 year career in research, engineering and management practice in industry and government. His teaching and research interests are in the areas of engineering design methodologies, design practice, engineering education and high performance, lightweight, com- posite materials design. Oscar is passionate about teaching engineering and, as part of his
2 1 1 effectively in multidisciplinary teams. 0 50% 25% 25% Strongly Strongly Question Agree Agree Disagree Disagree6 Participation in the biodiesel refinery project will make me 0 4 0 0 more likely to consider sustainable design options in my future 0% 100% 0% 0% career.7 I would recommend future students to participate in 0
astudent, at some point in the academic career, completed the required curriculum for a semester,then credit was given for completing that semester’s required curriculum, thus a “Y” for a givensemester’s work means that a student had completed all of the required courses for graduation atany time during the student’s career. In order to visually arrange the student curricularcompletion “pathway,” the semesters are always ordered sequentially, so “YYYN” means astudent successfully completed all of the courses in the first, three semesters of his/her major,and did not complete all of the courses in the last semester of his/her major.It is important to carefully describe exactly what such a methodology includes and what it leavesbehind. First, the
encompassing approach to increase the number of students inengineering through innovative outreach, recruiting, and retention programs. Prior tothese programs, the School of Electrical and Computer Engineering (ECE) at theUniversity of Oklahoma (OU) experienced a trend of reduced enrollment, which issimilar to the trend that has occurred across the U.S. in engineering. As a result, the keyfactors that influence selection of engineering as a career path were investigated and acorrective program to reverse this trend was initiated. The program involves focusing onthe present through retention, the immediate future through recruiting, and the distantfuture through outreach. The focus of all of these programs is to mobilize the OU-ECEfaculty and student
each week. The“winners” were then asked to present their project in the lecture in the week following their labpresentation. See Appendix 1 for App assignment and assessment. Page 22.373.6In addition to increasing students’ knowledge of fluid mechanics, the project was designed toimprove other skills important in engineering practice, such as teamwork and communication.Students were asked to work in small groups. Given the reliance of many engineering projects onsmall or large teams, the project helped prepare them for careers in engineering. Additionally,the presentation format, as opposed to a traditional written report, helped students
perception that thestudents have of a professor as a teacher. One possibility is to distribute articles or internet linksrelated to career issues, aspects of the course, or to the discipline as a whole. I prepare a career-related handout for the last day of class each week. Good sources are ASEE Prism, the businesspages of a local newspaper, and the “Managing Your Career” column by Hal Lancaster thatappears on Tuesday in The Wall Street Journal. These sources are part of my normal readingroutine so do not require extra time to prepare. I often say a few words about the careerperspective offered or the reason for an article given out on a particular day. Regular office hoursare a necessity, especially in a core course, but holding a special
by its faculty and students, and to provideservices to the community at large, with special consideration to the needs and circumstances ofLebanon and the region. The FEA prepares its students, in a challenging and intellectuallystimulating environment that undergoes continuous improvement, for life-long learning,innovation, and leadership in their chosen careers and empowers them for a richer personal andprofessional life.C. Prototypical Educational ObjectivesThe following objectives have been suggested by the Committee to the various departments inFEA as a starting point in developing educational objectives for the various programs offered:“The Bachelor’s degree programs of the Faculty of Engineering and Architecture (FEA)rigorously
projects designed to show them how an engineer may solvea given problem. Additionally, the variety of engineering disciplines shown to thesevisitors allows them to observe the career possibilities within the engineering field.One of more recent career possibilities in the engineering field is biomedical engineering,which has proven to be a rapidly growing trend within the United States, according torecent increases in the number of master and doctoral degrees awarded in this field [2].Consistent with this trend, we may expect future increases in the number of biomedicalengineering programs offered by universities around the country, particularly at theundergraduate level. Therefore, it may be beneficial for prospective K-12 engineeringstudents to
scarce resources to enhance student’s global competencies anddevelop them into better multidisciplinary team players and entrepreneurial problem-solvers.Preliminary assessment of eplum modelAs the projects associated with the eplum model expand and grow, we have conducted somepreliminary assessment during the Spring 2009 semester. The purpose of the assessment duringthis semester was to gather some baseline data about the differences associated with theoutcomes at the varying levels of engagement. In addition, we wished to acquire information onthe impact of service learning projects on students’ knowledge acquisition, self-perceptions, andfuture career plans
increase at nearlydouble the overall growth rate for all occupations by 2014, growing by 26% from 2004 to 2014,while employment in all occupations is projected to grow 13% over the same period 7. Yet inspite of such promising job prospects, the National Science Foundation recently reported that theUnited States is experiencing a chronic decline in homegrown science, technology, engineeringand math (STEM) talent and is increasingly dependent upon foreign scholars to fill workforceand leadership voids.8 Results from a recent survey by the American Society for Quality (ASQ)revealed that more than 85% of students today are not considering technical careers and thatmore parents encourage their daughters to become actresses than engineers.9 This is one
andinquisitive. Fourth, students might have to apply their knowledge in a different manner in orderto understand or solve a problem. Fifth, all projects require reporting on the work completed.That is accomplished through verbal communication with a faculty member or in a formal paperor presentation. This will strengthen and enhance student communication skills and betterprepare them to function in their future careers. Finally, even though this is not research it willrequire critical thinking and problem solving skills by the students. It has also been shown thatstudent projects carried out with faculty mentoring results in increased student retention andachievement. This is important not only to our institution but to the local community as wellsince
development.Some graduates can expect to be able to: 6. Enter the surveying profession and become licensed to practice surveying; 7. Begin careers in the construction industry; 8. Or earn advanced degrees in Civil Engineering or other fields.Courses in the first two years of the program develop a student's mathematical skills andunderstanding of the physical principles that underlie the practice of civil engineering.Engineering science courses in the second, third, and fourth years develop the student's ability toapply mathematics and basic scientific principles to the solution of practical engineeringproblems. The third year student develops a broad perspective of the field and establishes thefoundation for professional practice and
pieces are most effective in influencing,inspiring, and/or guiding our students into their particular pathways of engineering.At NU, the first-year engineering curriculum is fundamentally common for all majors andstudents take an Engineering Design course and a Problem Solving and Computation course in atwo-semester sequence. There is pressure for these two introductory engineering courses toaccomplish a myriad of things alongside content delivery, such as prepare students for thedemands of college, expose them to the engineering majors, provide relevant hands-on and real-world projects, develop algorithmic and critical thinking skills, and get them excited about theirengineering career path. There are a number and variety of projects
courses. It is likely that the synchronous nature of the courseworkhelps to pace the student’s work which in turn leads to course completion. On the other hand, thedirected project is a self-paced independent project without a pacing mechanism. The studentsenrolled in the distance MS program have family and career obligations competing for their time.After four semesters of intense coursework the students see the directed project as an obligationwithout a firm deadline. Distance education appeals to busy people. However, the burden can beoverwhelming. “Distance-education students tend to leave us because they are very busy, theirlives are crammed full of things, and suddenly they find themselves in a situation of having torethink their priorities
, nature settings, government infrastructure, and people, can beinvaluable resources for connecting STEM curriculum within context which results in conditionsideal for promoting purposeful learning of authentic STEM content. Thus, community-basedSTEM resources offer ideal context for teaching STEM content. A benefit of focusing teacherattention on these contextual, content aligned resources is that they are in every community;making place-based STEM education a possibility, regardless of the location of STEM teachingand learning. Further, associating STEM teaching and learning with local resources addressesworkforce development and the STEM pipeline by exposing students to STEM careers andapplications in their local communities.The desire to align
implementation of resonant micro/nanoelectromechanical systems (MEMS/NEMS); the behavior of electromechanical and thermomechanical systems operating in rich, multi-physics environments; and mechanics education. Dr. Rhoads is a member of the American Society for Engineering Education (ASEE) and the American Society of Mechanical Engineers (ASME), where he serves on the Student Design Committee and the Design Engineering Division’s Technical Com- mittees on Micro/Nanosystems and Vibration and Sound. Dr. Rhoads is a recipient of the National Sci- ence Foundation’s Faculty Early Career Development (CAREER) Award, the Purdue University School of Mechanical Engineering’s Harry L. Solberg Best Teacher Award (twice), and the ASEE
resources directed towards children in Primary School (K-6). When lookingat provision overall, it is apparent that most of the initiatives focus on science & technologywith engineering & maths receiving considerably less coverage. This lack of exposure isaugmented by the almost total absence of engineering within the school curriculum; meaningthat for most young people, upon leaving High School, engineering fails to register as apotential future study or career choice[16,17,18] . In considering this issue, this paper provides abrief analysis of the second stage of a longitudinal study in which the researchers sought togain an insight into the operational issues faced by one of the UK’s largest for-profit non-governmental engineering
todayare not even being considered. Israel7 (1995) stated that “a student who has completed atechnology education program should be able to participate as an active citizen by expressingtheir positions on technological issues, making wise consumer choices such as selecting, using, Page 24.1337.9and disposing of technical artifacts, and making informed career choices.” Technologicalliteracy, according to Wiens28 (1995), “is essential to the political and economic empowermentof the citizen.”An important aspect of technological literacy is not only to understand its consequences to someextent, but to also visualize the technologies. That is where the
. Lack of self-efficacy then inturn results in problems with technical problem solving11. In line with this notion, womenpossess less self-efficacy than men which leads to lower self-assessment of their problem solvingskills and competence as future engineers12. The self efficacy of female students is related to theretention as freshmen and their persistence in engineering13,14. When entering into engineering,female students have less confidence in their ability to succeed in engineering15. Research hasshown that the level of self-efficacy affects career choice as it pertains to science education16, 17.ReflectionsExtended reflection facilitates the creation of complex, connected mental schema.Designingcreative learning experiences helps develop
careers; however,identifying and tracking these had not resulted in improved situations at most of thoseinstitutions.1 Prior to submitting the proposal similar documentation efforts had been ongoing atthe University of Maine. A 1992 internal report proposed ways to increase women faculty inscience and engineering. In 2003 the Office of Equal Opportunity concluded that for facultymembers hired in the 1980’s, men were significantly more likely to have been promoted toProfessor. One major issue identified in the literature involves the persistence of implicit biases,which are held by both women and men and which lead to individuals privileging male faculty
.pdf3. Adelman, C. (1999). Women and Men of the Engineering Path: A Model for Analysis of Undergraduate Careers. Washington, D.C., U.S. Government Printing Office.4. Mattis, M. and Sislin J. (2005). Enhancing the Community College Pathway to Engineering Careers. Committee on Enhancing the Community College Pathway to Engineering College Pathway to Engineering Careers, Committee on Engineering Education, Board on Higher Education and Workforce, National Academy of Engineering, National Research Co. National Academies Press. Retrieved December 2012 from http://www.nap.edu/catalog.php?record_id=114385. CCST (2002). Critical Path Analysis of California’s Science and Technology Education System. Riverside, CA: CCST
The results for Question 1 shows that six students understand the engineering design processmuch better after finishing their project compared to other projects they encountered during theirstudent career. Question 2 was aimed to see how students perceive their previous knowledgegained from course work that was required for this project on a comparative basis to previousprojects the students took. The results show that the majority of students perceived that they hadto use more knowledge from previous coursework for this project compared to other projectsthey were involved in previously. For Question 3, eight out of nine students rated theirexperience with their project as good or very good.The results from Question 4 show that eight out of
of the manufacturing field. 2. By identifying respondents with their focus among six different types of academic programs, the survey responses provide insights on the differences in relative importance of the large number of topics that make up the manufacturing field. 3. The survey results show that there are meaningful differences among the variety of types of manufacturing programs and that the Four Pillars model is useful in curriculum planning. While not being prescriptive, the model can help educators tailor their programs to meet the needs of the industries served and the career expectations of their graduates.The Four Pillars of Manufacturing
important time for developing education and career goals. The majority ofstudents majoring in science, technology, engineering, or math made that decision during highschool.17Many high schools contribute to the low numbers and gender imbalance through non-existent CScourses or by mislabeled non-CS offerings, such as keyboarding, with the CS label. High schoolsalso often lack teachers trained in the CS subject area, are unaware of the gender issues incomputing, and engage in minimal efforts to recruit students into CS. Numerous calls forimprovement point to a need for: ● Access to high quality computing experiences, ● Public understanding of what computing really is, ● Course content, ● Teacher training, ● Education policies