STEM. After our experience in 2015Girls academy where we worked mostly with the latter group (girls who are already interested inSTEM) we changed our target group and worked with the former group. Our success storyresulted through this change in directions is described in our result section.ImplementationsThe Summer STEM Camp includes the following nine technical sessions. The technical sessionsare divided in two major categories, Science and Engineering. In the Engineering sessions wehave covered five different fields of Engineering as provided below.(1) Computer Engineering: Playing with Robots(2) Civil Engineering: Traffic Signals(3) Mechanical Engineering: Gears(4) Chemical Engineering: Battery and Fuel Cell Technologies(5) Electrical
Resources [10], • Additively Innovative Virtual Lecture Series [11]. Although coalition members developed a number of AM best practices [12-20] the coreof this paper is the evaluation of TTS as a unique tool for AM education. Overall, TTS is alearning approach designed to give hands-on instruction to AM instructors [3-4]. Webinars andMOOCS were also used to teach content and engage with AM educators. TTS sessions were heldbefore and during the Fall of 2019 in several states. Evaluation of the TTS was ongoingthroughout their delivery. The main coverage points of TTS-based AM learning were as follows. • Build your own printer, operate it, print some entrepreneurial parts and learn the key maintenance steps
concepts, lack of support from the instructor, confusing lab document, difficultyworking with partner, or outside distractions), whether there were any pre-lab exercises andwhether these were helpful, whether the instructor’s introduction was too brief or too prolonged,as well as their confidence level regarding both the technical and theoretical aspects of thecourse. We then examined the relationship between the characteristics of their laboratoryexperience and their self-reported frustration level.The factor that was most often cited as a cause of frustration was difficulties with equipment andtroubleshooting, followed by difficulty with concepts from the theory, and confusing labdocuments. In fact, in the two laboratory sessions where the
intensive; 1 each humanities, arts, engineering students and social sciences; concentration Archaeology and of 3-4 traditional HSS or Materials Engineering & interdisciplinary courses, including Nuclear Science and STS, but STS is not required Engineering require specific non-technical courses 2. Stanford 7/8 Required of all students in 4 Technology in Society categories: (1) thinking
Report Card. http://nces.ed.gov/nationsreportcard/ 2. Berliner, David (2001), “Averages that Hide the True Extreme” The Washington Post, Outlook Section, Sunday, January 28. 3. DeBoer, G. (1991) A History of Ideas in Science Education. NY: Teachers College Press. 4. Annenberg CPB (2002), “Minds of Our Own.” http://www.learner.org/resources/resource.html?uid=26&sj=SCI 5. National Academy of Engineering (2002). Technically Speaking: Why All Americans Need to Know More about Technology. Washington, D.C.: National Academy Press. 6. National Research Council (1995). National Science Education Standards. Washington D.C.: National Academy Press. 7. International Technological Education
century.Engineers in Non-engineering CareersMany engineering educators tout that “engineering is the liberal arts degree of the 21 stcentury” because it provides students with the strong technical and problem solving skills thatare needed in many fields2. Many of our graduates may go on to do things other than technicalwork, but that is all right, and in fact should even be encouraged, because we need lawyers,economists, doctors, financiers, and others with engineering background - Marshall Lih,Director of the National Science Foundation’s Division of Engineering Education and Centers 3.In the U.S. liberal studies in the form of courses in the humanities, social sciences and scienceshave been an integral part of engineering education. This is because
Session 2793and enthusiasm for the project. Projects selected by the students are usually reviewed to insurethat they are appropriate and feasible relative to the qualifications and interests of the interns. Aresearch mentor is then identified for each student selected and is committed to the interns’experience. The director then notifies applicants of their selections. Once all the students havebeen selected, an orientation meeting is held at MSU before leaving for their assignments. Careercounseling are also provided to students on request.Examples of ProjectsSome of the projects worked on by the students during the 2002 program are as follows5: • Collect water samples from a helicopter and/or boat and analyze samples for bacteria
Session 2793 Developing Civil Engineering Faculty JAMES B. POCOCK and STEVEN T. KUENNEN Department of Civil and Environmental Engineering, United States Air Force AcademyAbstractThere is a wide variety of credentials and experience among civil engineering faculty in theUnited States. Instructors in the classroom may range from teaching assistants or adjunct facultywith a master’s degree to full professors. Full-time faculty members in accredited civilengineering programs usually have doctoral degrees as well as teaching and research experience.At many
manufacturing process. “Proceedings of the 2003 American Society for Engineering Education Annual Conference & Exposition Copyright © 2003, American Society for Engineering Education” Session Number 2793Test both internal and external threads on four different diameters.Be flexible enough to accept four different APT assemblies.Perform tests without touching the threads of the APT.Test one APT at a time.Build prototype device at a low cost.Fit within an 8” x 8” x 8” box.Table 1: Criteria for the design of the APT Thread Checker.Results 1. During the course of this project, the team members further developed their technical, teamwork
the extent to which graduatescan accomplish the following 12 indicators: (1) In an environment of uncertainty and change, identify needs that can be fulfilled via engineered solutions. (2) Define a complex problem, accounting for its technological, political, social, and economic dimensions. (3) Determine what information is required to solve a problem; acquire that information from appropriate sources; and, when available information is imperfect or incomplete, Page 10.704.1 formulate reasonable assumptions that facilitate the problem solution. Proceedings of the 2005 American Society for
, Electrical and Mechanical Engineering disciplines. A summary of events is provided inchronological order[1-6]: a) 1901: Academy of Idaho (now Idaho State University) established b) 1904: 2 of first 4 Graduates of the Academy of Idaho were ``Civil Engineers" c) 1919: Division of Engineering and Trades established at Idaho Technical Institute d) 1927: Engineering and Trades were separated e) 1963: Idaho State College became Idaho State University (ISU) f) 1965: Restrictions by the State Board of Education to offer only General Engineering g) 1968: Department of Engineering and Nuclear Science established h) 1968: MS in Nuclear Science and Engineering started i) 1975: School of Engineering established j
andMinot, North Dakota. These students were introduced to the project by members of the localExperimental Aircraft Association (EAA) and recruited two upper division students to showthem how to accomplish the required production drawings, process plans, routing sheets, andoperations sheets. The project ran through the NDSU SME chapter to provide common long -term project management and a focal project for the students choosing the AircraftManufacturing Option in the Manufacturing Engineering program. One upper division studentvolunteered to manage the NDSU Wright Flyer Production during subsequent semesters and wasgiven three technical elective credits. The design drawings were provided by the National Airand Space Museum of the Smithsonian
engineering thought process and uses design to solve problems of the Army and the nation. 2) Develop an understanding of, and appreciation for, the natural physical laws and technology, particularly as they apply to mechanical engineering. 3) Internalize the design process and develop creativity in problem solving. 4) Demonstrate the necessary leadership and teamwork skills to work in multidisciplinary team environments. 5) Demonstrate those elements of engineering practice that prepare graduates for advanced study in mechanical engineering or other technical areas to include admission into and success at top mechanical engineering graduate programs. 6) Communicate, orally and in writing, correctly and in precise
Exposition Copyright Ó 2002, American Society for Engineering EducationReferences(1) Balamuralikrishna, R. & Mirman, C. R. (2002, January 6-8). Motivating high school and middle school students towards careers in CAD. Proceedings of the 56 th Annual Mid-Year Conference of the Engineering Design Graphics Division, American Society for Engineering Education, Berkeley, CA.(2) Occena, L.G., Chen, C. H., & Lammers, B. M. (1996, March 13-15). CMIEE: An investment in future manufacturing engineers. Proceedings of the International Conference on Education in Manufacturing, San Diego, CA.(3) Cohen, W. (2001). Role model for diversity. ASEE Prism, 11(3): 30-34(4) Hogan, B. J. (Editor) (2001, October). News desk
. Several approaches involving requiring interdisciplinary projects in capstone or upperlevel division courses with traditionally closely related fields such as electrical and computerengineering have been implemented in many computer science programs and discussed inseveral scholarly publications9-11. Additionally, the computer science major has several commoncourses with electrical and computer engineering majors such as digital fundamentals, computer Page 22.570.2networks, artificial intelligence, and computer organization. These have helped alleviate theproblem to some extent.However, little attention has been paid to engaging computer science
industry sessions. Participantsare mentored by distinguished engineering students, technical staff, and faculty members from theGina Cody School of Engineering and Computer Science. The program begins with an address byDr. Gina Cody, the first female PhD graduate from the construction engineering program. Itcontinues with a series of hands-on activities across various domains of engineering and computerscience, visits to multiple labs within the Gina Cody School, and industry sessions led by womenin different engineering fields.2- Related WorksSeveral initiatives have been considered to integrate engineering education into the K-12curriculum. While there is some caution regarding the timing of early exposure, one key argumentfor this integration
the recovery device a parachute will generate internal procurement of significant amounts of parachute materia l, which will also help boost the national economy. 3. It must have a short total time of flight to minimize exposure time to enemy fire trying to destroy the rocket. This is especially important during the descent phase when the vehicle is moving slowly. 4. The engineering work must be well documented in a technical report so that, if necessary, a later group of engineers can make improvements in the design for future flights. 5. The company’s chief
, India, and takes active role in conducting workshops, designing course contents as well as various other Mission10X projects in addition to several research activities in various aspects of engineering education. As a technical faculty of Mission10X, she is a certified master trainer for the various training modules of Mission10X for engineering college faculty in INDIA. In addition, she is qualified with the ”Cambridge International Certificate for Teachers and Trainers (CICTT),” Cambridge University, U.K.Dr. Rajshri Jobanputra Rajshri Jobanputra brings with her more than 15 years of experience of teaching, training, and research. Academically qualified with a Ph.D. in philosophy, from Indian Institute of Technology
problemattributes and constraints. The visualization aspect of this problem-solving approachprovides real insight into internal problem mechanisms and the performance of theproblem solution.Bibliography1. Problem Solving Skills, http://www.athealth.com/Consumer/disorders/problemsolving.html2. Zywno, M., Instructional Technology, Learning Styles and Academic Achievement, Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition.3. Matušu, R. and Prokop, R., User-friendly MATLAB Program for Control and Robust Stability Analysis of Systems with Parametric Uncertainties, Proceedings of the 13th Mediterranean Conference on Control and Automation Limassol, Cyprus, June 27-29, 2005.4. Daku, B
into rhetorical Page 7.1088.7Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition Copyright © 2002, American Society for Engineering Educationstrategies such as description, narration, definition, comparison and contrast,classification and division, and the like. We also discussed mathematics in the writing classroom. One exercise involved acomparison of descriptions in English and in mathematical equations. Figure 3 showsone such comparison, a discussion of velocity in words and in an equation.Figure 3: Comparison of Two Grammars, English and Mathematical Equation 4
. Posttest survey results show over 90% at a 3, 4, or5. After the summer session, NetLogo was useful to 95% of K12 teachers. After an academic yearNetLogo follow-up session over 75% of the K12 teachers were satisfied with instruction andsupport. Over 85% of teachers believed that the workshop "stretched teacher thinking into theirclassrooms.” Teachers’ qualitative comments are included for triangulation. Conclusionsinclude that intense K12 teacher exposure to engineering CS topics (e.g. 24 hours total of alarger PD) is not enough to truly enact meaningful classroom changes (although the teachers didcreate new activities). Additional support for meaningful classroom change and K12 teacherconfidence is necessary. In general, K12 teachers need (and
financial support, design project ideas, as well as project mentors. The involvement isalso a path through which the company can influence non-technical expectations and helpdevelop student’s skills in areas including leadership, teamwork, and project management.Project involvement and participation in senior design project reviews give the company anadvantage in identifying those students who demonstrate the “soft” skills well and are highlycapable and motivated. Since 2005, the company has sponsored 20 projects with two currentprojects in 2014-15. These projects include a wide range of topics such as product development,energy usage audit, materials characterization, among others.One or two senior design projects per year are international in
-founded self-confidence in team members.References [1] Cordon, D., et al, “Shop Orientation to Enhance Design for Manufacturing in Capstone Projects,” Proceedings, ASEE/IEEE Frontiers in Education Conference, 2002, Session F4D.[2] Sullivan, J.F., Knight, D.W., & Carlson, L.E., “Team Building in Lower Division Project Courses,” Proceedings, ASEE/IEEE Frontiers in Education Conference, 2002, Session T1A.[3] Frey, D.D., Horton, A., & Somerville, M., “Breaking the Ice with Prospective Students: A Team Based Design Activity to Introduce Active Learning,” Proceedings, ASEE/IEEE Frontiers in Education Conference, 2002, Session T1A.[4] Lingard, R., & Berry, E., “Teaching Teamwork Skills in Software Engineering Based on an
task which may draw analogies from daily operation and incorporatetheir internal mode of knowledge from across disciplines into a final product. It symbolizesthe solution of the authentic problem accordingly. Brown [3] further expounded the result of such a teaching and learning approach.Learners are even motivated to persist at problems from their workplace, meld priorknowledge and experience with new learning, and develop rich domain-specific knowledge. Itis contextualized in social context that students construct their own knowledge by solvingcomplex problems in situations in which they use cognitive skills, multiple sources ofinformation, and other individuals as resources. In the following part, the benefits of groupproject learning
Session 2793 Surgical Robot Competition – Introducing Engineering in Medicine to Pre-college Students Oleg Gerovichev, Randal P. Goldberg, Ian D. Donn, Anand Viswanathan, Russell H. Taylor Department of Biomedical Engineering / Department of Mechanical Engineering / Department of Electrical and Computer Engineering/ Department of Computer Science/ Department of Computer Science Johns Hopkins University (Baltimore, Maryland)AbstractRobotics is a multidisciplinary field that holds great potential for hands-on education
Session 2793 Engineering a Traditional English Department: Writing Instruction and the Role of Freshman English Nicole Amare, Charlotte Brammer The University of South Alabama/The University of AlabamaAbstractThis paper discusses the results of collaborative efforts to create a writing course across thedisciplines for TIDE (Teaming, Integration, & Design in Engineering) students in traditionalcomposition classes. In the fall 1999 semester, the engineering department at the University ofAlabama developed a TIDE curriculum in an effort to assist incoming engineering
against this backdrop that we consider the marketization of UK HE.Marketization within HE has led to behavior similar to that observed in industry and resultedin division of labor and increased levels of specialization [9], with departments becomingbusiness units and staff being discouraged (and in some cases prevented) from teaching andsupervising research students within other departments. For academic staff, large studentnumbers, alongside increases in quality assessment exercises has led to increased workloads.Marketization of HE within the UK can be considered to have begun in the 1980s whensubsidies for international student fees were removed, the funding of research and teachingwas separated, and research became selectively funded [10
success.References[1] J.S. Lamancusa, J.E. Jorgesen, and J.L. Zayas-Castro, “The Learning Factory – A New Approach to Integrating Design and Manufacturing into the Engineering Curriculum,” Journal of Engineering Education, vol. 86, no. 2, January, 2013[2] K. Yelamarthi, J. Slater, J. Wu, and P.R. Mawasha, “Engineering Management in an Interdisciplinary Senior Design Project,” Balkan Region Conf. on Engineering and Business Education. vol. 1, no. 1, pp. 153–156, August 2014[3] Z. Siddique, “Structuring Senior Design Capstone to Develop Competencies,” ASME Proceedings of 9th International Conference on Design Education, vol. 7, August, 2012
programs not only provide a math refresher, butalso relevant hands-on projects infusing technical skills development into the experience. GrowthSector partners with faculty (Community College and 4-year), national labs and industry leadersto create and implement the hands-on projects that are documented on students’ resumes.Students also learn how to work in groups, produce deliverables and hone their presentationskills. Growth Sector identifies three potential partners to linking students to real worldapplications and essential hands-on skills during Summer Bridge: 1.ORISE Summer Projects 2. Industry Projects 3. Research/4-Year ProjectsORISE Summer Projects Oak Ridge Institute for Science Education (ORISE), based at
Session 2793 INTEGRATING PROCESS AND PRODUCT: IMPROVING ENGINEERINGEDUCATION THROUGH THE TEAM EXPERIENCE Robert D. Knecht, Donna M Carlon Colorado School of Mines/University of Central OklahomaAbstract – This paper examines a teamwork model based on transport theory consisting ofinput/output conditions and external functions as an effective tool to assess performance of first-year engineering design teams. By comparing final attitudes with expectations, this studysuggests factors that influence team decision-making processes. Key among these are the taskand