Paper ID #7355Defining Engineering in K-12 in North CarolinaDr. Laura Bottomley, North Carolina State University Laura Bottomley received a B.S. in Electrical Engineering in 1984 and an M.S. in Electrical Engineering in 1985 from Virginia Tech. She received her Ph D. in Electrical and Computer Engineering from North Carolina State University in 1992. Dr. Bottomley worked at AT&T Bell Laboratories as a member of technical staff in Transmission Systems from 1985 to 1987, during which time she worked in ISDN standards, including representing Bell Labs on an ANSI standards committee for physical layer ISDN standards
years of grantfunding.The project had four distinct phases. In Phase One, Cohort A, high school participants, engagedin an intensive summer university experience. While participating in classroom and laboratory-based experiences, they were exposed to cutting-edge research in NASA-Related Earth SystemScience. In collaboration with university faculty, graduate students and a professionaldevelopment team of master teachers, Cohort A systematically developed NASA-related STEMK-12 teaching modules for secondary students. The proposed module development activitieswere designed to help teachers translate their new NASA-related scientific knowledge during thesummer research experience into their instructional practices in the classroom.Cohort A
classproduced the same result; MST grades for individual assignments were on par, or better, thanT/PrEE students. This result was counterintuitive because MST majors start the program withclearly weaker skills and lower comfort with laboratory tools. However, MST students tendnot to hesitate in asking for help in understanding a process. A T/PrEE student is often theone providing the help, which also benefits the T/PrEE students since he/she gatherseducational experiences in providing this help.In summary, MST students are not simply passing T&E courses but are actually performingon par or better than the TE students. This is a strong indication that MST students arelearning substantial T&E content. (iii) Technology Education PraxisTM
engineering through a two-week residential summer camp. The Summer Engineering Instituteprovides participants an insight into the engineering profession and the engineering educationalsystem through a combination of lectures, hands-on laboratory activities, field trips, workshops,panels, and projects. Among the strategies employed in developing the program are emphasizingall the major fields of engineering and the various paths to an engineering career, including therole of community colleges; targeting first generation students and underrepresented minorities;collaborating with high school faculty and staff through a nomination process to identify andselect potential students; collaboration among community college and university faculty indeveloping
to work through all of the lessons themselves and began to devise implementationplans for their own classrooms. During the second week, they were invited to bring two studentsas part of a teaching laboratory. During this week, the teachers were responsible for teaching themodules to the students in a highly supported environment, surrounded by SENSE IT staff, whowere available to assist with any questions or concerns. This gave the teachers the opportunity toreview the materials, as well as to see how they work with students, thus enabling them to betterprepare for full classroom teaching.The SENSE IT teachers also participated in four full-day professional development workshopsduring the school year. The workshops gave the teachers an
University DR. JEAN KAMPE is currently department chair of Engineering Fundamentals at Michigan Techno- logical University, where she holds an associate professorship in the Department of Materials Science and Engineering. She received her Ph.D. in metallurgical engineering from Michigan Tech, M.Ch.E. in chemical engineering from the University of Delaware, and a B.S. degree in chemical engineering from Michigan Tech. She was employed as a research engineer for five years at the Naval Research Laboratory in Washington, DC, and she held an associate professorship in the Department of Engineering Education at Virginia Polytechnic Institute and State University, working there for ten years in first-year engineering
University of Wisconsin - Madison, and a faculty fel- low at the Wisconsin Center for Education Research (WCER) and the Center on Education and Work. Dr. Nathan studies the cognitive, embodied, and social processes involved in STEM reasoning, learn- ing and teaching, especially in mathematics and engineering classrooms and in laboratory settings, using both quantitative and qualitative research methods. Dr. Nathan has secured over $20M in external re- search funds and has over 80 peer-reviewed publications in education and Learning Sciences research, as well as over 100 scholarly presentations to US and international audiences. He is Principal Investiga- tor or co-Principal Investigator of 5 active grants from NSF and the
. Page 22.1246.16References1. Erwin, B., M. Cyr, and C. Rogers, Lego engineer and RoboLab: Teaching engineering with LabView from Kindergarten to graduate school. International Journal of Engineering Education, 2000. 16(3): p. 181-192.2. Resnick, M., Behavior construction kits. Communications of the ACM, 1993. 36(7): p. 64-71.3. Verner, I.M. and D.J. Ahlgren, Robot contest as a laboratory for experiential engineering education. ACM Journal on Educational Resources in Computing, 2004. 4(2): p. 2-28.4. Petre, M. and B. Price, Using robotics to motivate ‘back door’ learning. Education and Information Technologies, 2004. 9(2): p. 147-158.5. Sklar, E. and A. Eguchi. RoboCupJunior — four years later, in Proceedings of the
, PhD, is professor of Educational Psychology, with affiliate appointments in Curriculum & Instruction and Psychology at the University of Wisconsin - Madison, and a faculty fel- low at the Wisconsin Center for Education Research (WCER) and the Center on Education and Work. Dr. Nathan studies the cognitive, embodied, and social processes involved in STEM reasoning, learn- ing and teaching, especially in mathematics and engineering classrooms and in laboratory settings, using both quantitative and qualitative research methods. Dr. Nathan has secured over $20M in external re- search funds and has over 80 peer-reviewed publications in education and Learning Sciences research, as well as over 100 scholarly
teachers for the week to participatein a teaching laboratory. During the week, the teachers are responsible for teaching the modulesto the students in a highly supported environment, surrounded by SENSE IT staff, available toassist with any questions or concerns. The opportunity for teachers to implement the materialswith students enables the teachers to review the materials again, better understand how theymight teach the materials to students in their classes and offer more time for the mentalpreparation required for implementing new classroom activities.As mentioned, the SENSE IT teachers also participate in four school-year professionaldevelopment workshops. The workshop materials involve the development of sensors, evaluationneeds, and STEM
PCM’s framework helps the course designer see the relationship of standard traditional methods of assessment (e.g., plug and chug problems, laboratory experiments, projects and presentations) in creating an engineering professional’s knowledge set. It provides a framework to balance the knowledge and skills since neither a “book smart” student nor the student who randomly tinkers makes the best engineer. ● Freedom to be flexible in selecting course components to meet objectives: The ideal method of teaching content depends on a number of changing factors such as student ability and background, instructor expertise, and resources available. Ideally, a course designer can select freely from the wide range of
, is particularly urgent in Texas becauseof a 2006 legislative decision requiring all high school students, beginning with those 15.1277.9who entered ninth grade in 2007, to complete four years of science to graduate under thestate’s default degree plan. This fourth year of science, which must be laboratory-based,may be selected from existing courses in anatomy/physiology, astronomy, advancedbiology, chemistry and physics, environmental systems and research/design, or may be anew course in space science or a new course in engineering. In schools offering anengineering option, this new initiative will put enormous pressure on secondary
2 2 1 1 1 3 2012 1 1 1 1 1 2 2013 1 1 1 3 2*2003 information unavailableThe teachers overwhelmingly reported positive experiences from the research time with thefaculty. The post-program surveys for cohorts 2011-2013 included the following statement: “Theresearch experience in my faculty mentor's laboratory enhanced my summer experience.” Of the37 teachers responding in the post-program survey, 78% “strongly agreed” and 19% “agreed”with this statement (mean 4.76 ± 0.49). The quotes below typify the sentiments of the majorityof the
took participants to the Melvin Price Locks and Dam in EastAlton, IL. There the teachers were exposed to working systems and were able to discuss with theArmy Corps of Engineers the real-world complex problems that they had to solve on a day-to-day basis. A tour of the School of Engineering labs was also provided to expose participants toother problems being solved in laboratory environments.Overall, the summer workshop presented engineering and engineering design principles to theteacher-participants and then allowed them to experience hands-on application of thoseprinciples. The Ask, Imagine, Plan, Create, Improve and Reflect engineering design stepswere presented and applied during projects. While concepts built upon one another and
teaching methods for pre-service and in-service teachers. He is the director of City- Lab, a biotechnology learning laboratory for K12 students and teachers at Boston University School of Medicine and a former high school science teacher. He co-authors Teaching Children Science: a Discov- ery Approach written as a textbook for pre-service elementary science teachers. Page 26.1050.1 c American Society for Engineering Education, 2015 K-12 Teachers as Curriculum Designers in Engineering Professional Development
PROBLEMS THROUGH DESIGN PROCESSES 16the base or “bottom part” more detachable to improve transportability, the group did not addressmaking the frame or “top part” more transportable as well. Because the students had devoted solittle of their conversation to re-stating the problem and clarifying what the client wanted, oneaspect of the problem did not emerge until after the design had already been produced.Research a need or problem. Many previous studies of novices’ design processes have been ina laboratory study where the only available source of information was the experimenter. In thesestudies, the researchers defined the ‘information gathering’ stage as asking for information fromthe experimenter, reading
educators from Washington University, the Saint Louis Science Center, the Missouri Botanical Garden, and the Saint Louis Zoo in providing curriculum, professional development, kit materials, an interactive website, and a visiting science laboratory/classroom to schools throughout the St. Louis area. She serves on the national faculty of the National Science Resources Center’s Leadership Assistance for Science Education Reform (LASER) strategic planning institutes. She was a 2008 and 2009 fellow in the Psychodynamic Research Training Program at Yale University’s Anna Freud Child Study Center. McMahon has a distinctive ability to translate cutting edge concepts from various disciplines in science, engineering, and education in an