taught middle school, high school, undergraduate and graduate level technology education in his 30 year career as a teacher and researcher. He has extensive research and curriculum development experience in STEM disciplines. His research includes the study of thinking processes, teaching methods, and activities that improve technological problem-solving performance and creativity. He has expertise in developing technology and engineering education curriculum that inte- grates science, technology, engineering and mathematics (STEM) concepts. Dr. Deluca is Co-PI on NSF project Transforming Teaching through Implementing Inquiry (DRL 1118942). This project focuses on developing research-proven professional development
, andmathematics.IntroductionThe use of visual-based systems in modern culture and education is becoming more prevalent,requiring schools to adapt their curricula and instructional practices accordingly. Visual literacyis becoming central to curricular initiatives as society begins to rely heavily on visualization andvisual communication strategies 1. Education, aesthetics, communication, ethics, research, andother aspects of learning have placed emphasis on visual science and visual literacy as a responseto our increasingly complex, highly visual, and interconnected society 2. Developinginstructional materials and methods of instruction that develop visualization abilities, meeting theneeds of technology educators, and preparing students for future careers in STEM areas
2006-1725: ATTRACTING A DIVERSE SECONDARY EDUCATIONPOPULATION WITH PRE-ENGINEERING ADVENTURESJohn Marshall, University of Southern MaineJune Marshall, St. Joseph's College Page 11.260.1© American Society for Engineering Education, 2006 Attracting a Diverse Secondary Education Population with Pre-Engineering AdventuresIntroductionToo few high school students understand that a technical career path can genuinely beexciting and neat. Some have the short-term view that good paying jobs are plentiful, sowhy take the really difficult courses. Many sell their own abilities short and convincethemselves that it is too difficult a
Engineering Education, 2010 Engaging Transportation Engineering Activities for Middle School and High School StudentsAbstractIn summer 2009, the Georgia Institute of Technology hosted the Technology, Engineering andComputing (TEC) Camp for rising seventh and eighth grade girls. The purpose of the camp is toexpose middle school students to a wide range of engineering disciplines early in theireducations in order to inspire campers to consider college majors and careers in these importantfields. Three distinct activities were created to introduce the young women to the field ofTransportation Engineering.The purpose of the first activity was to help students recognize tradeoffs that individuals makewhen determining
AC 2010-1755: TRAINING AND PERFORMANCE ASSESSMENT OF MINORITYSTUDENTS IN STEMEhsan Sheybani, Virginia State UniversityGiti Javidi, VSU Page 15.1275.1© American Society for Engineering Education, 2010 Training and Performance Assessment of Minority Students in STEMAbstractThe proposed study is designed to implement and test the efficacy of an intervention developed as part of an NSF-funded project by the team of investigators at Longwood University and Virginia State University. This interventiondevelops the underlying thinking skills in students necessary for success in STEM courses and careers. Rather thanrelying only on classroom content and high-level thinking
interest in andrelevance to math and science in elementary school students. This project was designed toaddress study results by the National Academy of Engineering1 and President’s Council ofAdvisors on Science and Technology (PCAST)2, among others, which have identified the needto enhance the pathways to careers in science, technology, engineering and math to attract anabundant, diverse and proficient workforce. This involves both improving our educationalcontent and conveying the importance, value and satisfaction that can be achieved in suchcareers. As the PCAST report emphasizes improving STEM education requires we “focus onpreparation and inspiration.” Further, “imprinting” engineering as a career pathway, as Ellis,Jackson and Wynn3 have
pursuing computing and STEM related careers, and post- secondary study.What We Do Researching and Developing Teaching Resources for Computing and STEM Education Conduct research on Integrated Computing and STEM Education in K-14 Develop pedagogy and strategies to integrate computing and robotics into STEM education Develop courseware and teaching materials for K-14 computing and STEM education Training and Professional Development for K-14 STEM Teachers Offer workshops, tutorials, and summer institute for professional development for STEM teachers on robotics, computing and programming in C/C++, pedagogy on teaching computing and robotics in K-14, and its integration in STEM
engineers going into the field, since itis expected that demand for engineering expertise won’t be met with current graduation rates.3In response, several K-12 programs have been developed to increase exposure to engineering,normally in a formal setting.5,6 While well-intentioned, the faltering graduation rates ofengineers from suggest these programs are falling short of bolstering the country’s supply offuture engineers, and further action must be taken to maintain a global engineering presence.3Rather than aim at the preparation and retention of older students, the solution may lie with ayounger crowd (ages 3-6), since development during formative years has implications towardsdevelopment of misconceptions and future career choices.7 In
and within its case containing variations depending on the subject areaand standard.Methods of Collection Science, math, technology, vocational, engineering, and career standards were collectedfrom each state. Research team members pulled standards that relate to engineering andtechnology design from each standards document using a liberal approach. The liberal approachmeant that terminology which was in congruence with the definitions of engineering had to beutilized, yet the standards text did not have to explicitly mention engineering. These key terms:Engineering, Design, Process, Optimization, Modeling, Testing, Properties (of Materials),Prototype, Design Task, Iterative, Technology, Constraints, and Criteria were based on
education rather than a career in engineering; and pre-service teachers who will becomeengineering educators will have a wide range of mathematics and science backgrounds.Engineering faculty involved in the UTeachEngineering project at The University of Texas, withthe support of a Math and Science Partnership (MSP) grant from the National ScienceFoundation (NSF), have developed a three-course engineering sequence for science andmathematics students preparing to become secondary STEM educators. Students participating inthese classes are enrolled in a pre-service teacher preparation program at the University thatcombines an undergraduate major in mathematics or science with pedagogical courses offered bythe College of Education. This is one possible
our nation’sfuture but also our national security and societal progress (National Academy of Engineering,2009). EiE has proven to be an effective tool for developing this literacy and for instilling inelementary aged children the skills to work in teams, solve problems and make data drivendecisions, all important 21st century skills (LaChapelle and Cunningham, 2010). In addition,the program is designed for all students—an important factor in both career preparation andworkforce development. The paper will discuss how EiE use has been increased, encouragedand supported by the author and our university by providing professional development andongoing support to teachers and schools. To accommodate the addition of engineering principlesto the
Outreach Coordinator for Cal Poly’s College of Engineering in 2008-2009, Teana helped develop the EPIC - Engineering Possibilities in College - summer camp for high school students. Now in its 5th year, the EPIC program continues to draw underrepresented students to its program, which educates and inspires students to pursue careers in engineering. Page 22.658.1 c American Society for Engineering Education, 2011 Evolving a Summer Engineering Camp through AssessmentBackgroundEPIC (Engineering Possibilities in College) is a one-week summer program for high schoolstudents (entering 9th-12th
Lafayette Dr. Demetra Evangelou is Assistant Professor of Engineering Education in the School of Engineering Education at Purdue University. She has a PhD in Early Childhood Education from the University of Illinois at Urbana-Champaign and international expertise in early childhood policy and research methods. Her current research focuses on developmental engineering, early education antecedents of engineering thinking, developmental factors in engineering pedagogy, technological literacy and human-artifact inter- actions. She is a member of Sigma Xi Science Honor Society and in 2009 he was awarded the prestigious NSF CAREER Award.Jennifer Dobbs-Oates, Purdue University Jennifer Dobbs-Oates, Ph.D., is assistant
the relationship between the arts and engineering," said Sue Kemnitzer, the deputydivision director for education in the National Science Foundation (NSF) Division of EngineeringEducation and Centers. "We also expect that more students with these broader interests will beattracted to engineering careers." 4 This new approach to engineering appears to be viable becausethe student of the 21st century is much closer to the earlier Renaissance men who would never haveseparated engineering and the arts. It was important for these men to be rounded in their educations.As Snider puts it, “"At first, many of the students' attitudes are coarse and unsophisticated: 'All
career as a Mathematics Teacher at Tanglewood Middle School in Greenville, South Carolina. He was awarded Teacher of the Year after his second year in the classroom. Also at this time he was selected to serve on the Curriculum Leadership Institute for the Greenville County Schools District. After teaching middle school for five years, Storm moved to Riverside High School and instructed integrated mathematics classes for 2 years. With a solid foundation of teaching experience formed, Storm accepted a position as an Aerospace Edu- cation Specialist for NASA’s Aerospace Education Services Project. For 7 years Storm designed, imple- mented and facilitated various STEM programs to inspire teachers and students in STEM. As
worked as a faculty member of the Biology Department and was Director of the elementary school outreach program in the Office of Science Teaching at Florida State University (FSU). In her 21-year career she has worked with National Oceanic and Atmospheric Association and the National Park Service as a science educator and researcher and has been executive director of multiple non-profit environmental organizations. This experience has given Beth a strong background in grant writing, partnership building, laboratory research, teaching across K-12 and adults, as well as program development and curriculum writing.Miss Nancy Anna Newsome, Georgia Tech - Center for Education Integrating Science, Mathematics, and Com-puting
innovative, interdisciplinary curricular approaches that engage students in developing models of real world problems and their so- lutions. Her research also involves working with educators to shift their expectations and instructional practice to facilitate effective STEM integration. Tamara is the recipient of a 2012 Presidential Early Career Award for Scientists and Engineers (PECASE) for her work on STEM integration with underrep- resented minority and underprivileged urban K-12 students.Dr. S. Selcen Guzey, University of Minnesota, Twin Cities Dr. Guzey is a Research Associate at the STEM Education Center at the University of Minnesota. Her research and teaching focus on integrated STEM education.Mr. Aran W Glancy
maintaining student interest in engineering and related science and technology and works with several regional K12 programs to help increase the pipeline of students interested in pursuing careers in these fields.Ms. Christine Olson, University of Massachusetts Amherst Christine Olson is a doctoral student in the Department of Communication at the University of Mas- sachusetts Amherst. Her research interests include media production and social participation practices online, social inequality and new media technologies, children and new media, and digital media litera- cies. Her work has been presented at International Communication Association conferences.Dr. Charles M Schweik, University of Massachusetts, Amherst Charles
, andhaving fun. The presentation ends with a question and answer session which generally turns outto be very positive in terms of interaction among the administrative group and the parents. The session on admission emphasized that, every student seeking admission should submit Page 11.293.6an application. Students were guided through admission requirements which include applicationfees, SAT scores, letters of recommendations and transcripts. Later, they are helped to completeand return the application on time.Workshop-B WSU has an active career services center which provides students information on the variousjob opportunities
development onmathematics and science is targeted to attract females to engineering8, lack of knowledge onengineering disciplines and associated career opportunities has also been observed to partiallyexplain female underrepresentation in engineering fields9. The current trend in apparent femalestudent shortage of STEM interest can partially be mitigated by utilizing outreach activities inearly stages.High school students are the major recipients10 of most K-12 engineering outreach camps that areproven effective to attract as well as to expose students to science and engineeringdisciplines11,12. A number of STEM camps focused on specific student clusters such as middleschool female students in a day camp13, grade-level14 or specific minority
-school SettingAbstractFor both genders characteristics of effective STEM (Science, Technology, Engineering, andMath) after-school programs include opportunities for youth to build competencies, form bondswith peers and staff, and participate in program decisions. After-school program characteristicsfound to foster STEM interest and persistence of girls in particular across age, race and ethnicdiversity include collaborative, hands-on activities, mentoring, parent and community support,emphasis on practical applications, and teaching of science or engineering in a more holistic andsocial context 1,2,3,4,5,6,7. In addition, programs for girls that combine hands-on activities, rolemodels, mentoring, and career
, and mathematics (STEM) careers. These E3programs seek to create interest, provide exposure, and develop the academic skills necessary forstudents to pursue an engineering career. In addition, all pathway programs require parentparticipation. Our proposed E3 Pathway Programs are in line with the “best practices” describedin the National Association of Multicultural Engineering Program Advocates (NAMEPA) Region Page 14.946.3C Model Program Workbook21 and NACME’s Academic Gamesmanship: Becoming a “MasterEngineering Student”22.The students recruited into the UC’s College of Engineering through the aforementioned E3Pathway Programs are invited to
preventing them from doing those activities, if anything.] 6. Understanding of engineering as a career Now I would like you to picture someone with a job where they design, create, and build things. What comes to mind when you think about this person? What do they look like? [Probe for characteristics of engineers as well as ideas about what the engineer does] [If student has not already used the term engineering] If an adult did that kind of work (designing, creating, and building) what would you call that? [Don’t use the term engineering--use their own terminology.] Do you know anyone with a job like that? [If yes: have them describe what those people do] What
AC 2011-908: STEM INTEGRATION IN A PRE-COLLEGE COURSE INDIGITAL ELECTRONICS: ANALYSIS OF THE ENACTED CURRICU-LUMAmy C. Prevost, University of Wisconsin-Madison Ms. Prevost is a doctoral student in Education Leadership and Policy Analysis at the University of Wisconsin-Madison. Her research is focused on the STEM career pipeline, especially related to engi- neering, engineering education and the molecular biosciences. In addition to her work in education re- search, she is also the Director of scientific courses at the BioPharmaceutical Technology Center Institute in Madison, WI, where she coordinates curricula in the area of molecular biology.Mitchell Nathan, University of Wisconsin, Madison Mitchell J. Nathan, BSEE
,Inc.Some K-12 programs focus on mutual concepts that appear in both engineering and the physicalsciences (engineering science) rather than design and problem solving (engineering design). It isno coincidence then that middle school students do not know what engineers are or what they doin practice. Hence, they do not choose engineering as a possible career choice. While the formerhas its merits with regard to enriching math and science education for students, the later isnecessary for a true understanding of engineering as a profession. Here we examine changes instudents‘ attitudes toward math and science, as well as their development of ideas aboutengineering after receiving instruction using both approaches - a science curriculum withintegrated
science and mathematics principles to solve relevant, real-world design problemsin the context of the required courses. In addition to increasing students’ familiarity withengineering and other STEM careers, the exposure to engineering concepts and design-basedactivities is hypothesized to improve students’ problem-solving abilities in other areas.The teacher professional development programs under the EOFNJ umbrella provide teacherswith a thorough understanding of selected exemplary engineering curricula and the underlyingscience, engineering, and mathematics concepts through hands-on experiences that frequentlyresult in effective classroom implementation and occasionally in district-wide adoption of thecurriculum.1 Engineering curricula and
)disciplines more culturally relevant to the Anishinabe youth. More information about the Page 14.288.2program can be found at [URL removed for review]. The program is a three year collaborativeproject funded by the National Science Foundation. The curriculum that is presented in thispaper was implemented in the second year of the RFTS program. The curriculum was deliveredto approximately 70 American Indian students in the after school program of the RFTS projectand was implemented in a two month long period in fall 2008.Curriculum DesignThe curriculum was created to introduce American Indian youth to career opportunities in civilengineering, various
study of engineering or other STEM fields.2. Develop mathematics and science teacher knowledge of engineering and the engineering design process and challenge-based instruction process through explicit training and classroom implementation support.In addition to improving math and science teaching, the program also seeks to develop acommunity of teachers who will implement an explicit and authentic articulation of engineeringin 7th-12th grade math and science classrooms so that these teachers will effectively enablestudents to understand engineering design and consider careers in engineering fields.The program is targeted to middle school and high school teachers from selected school districts.Approximately 20 teachers take part each year
, and forthcoming results suggest a link between these experiences and the career trajectories of female scientists. She continues to perform research on issues of inclusion, identity, and diversity in science through collaborations with GAMES, the Committee for the Status of Women in Astronomy, and other organizations.Dr. Ayesha Sherita Tillman, University of Illinois at Urbana-Champaign Ayesha Tillman is an Illinois -STEM Education Initiative postdoctoral research associate currently work- ing on several evaluations funded by the National Science Foundation and the National Institutes of Health. Ayesha Tillman received her Bachelor of Science in Psychology from Arizona State Univer- sity and her Master of Arts in
below. Page 11.1463.5I am aware of career opportunities in engineering and technology Post Pre Strongly Agree 0 Strongly Disagree 1.00 1.50 2.00 2.50 3.00 3.50 4.00I have confidence in my ability to solve challenging problems Post Pre 0 Strongly Agree Strongly Disagree 1.00 1.50