districts. Therevised target would be to teach EiE in every classroom of two of the three grades (3, 4,and 5) of each elementary school in the four participating districts. The decision on whichtwo grades would be chosen was left up to each school district.Project DescriptionSTEM ROCKS, funded as a student interest project, seeks to win hearts and minds in theelementary schools and to put the "T" and "E" (technology and engineering) back intoSTEM while emphasizing the supporting science and mathematics.The principal aim of STEM ROCKS is to introduce EiE into every classroom of two Page 14.998.4grades of each elementary school in Billerica, Chelmsford
AC 2009-2238: RESEARCH, COLLABORATION, AND INTERCONNECTEDOUTREACH FOR UNDERREPRESENTED GROUPSGisele Ragusa, University of Southern CaliforniaJoseph Cocozza, University of Southern California Page 14.1029.1© American Society for Engineering Education, 2009 1 Research, Collaboration and Interconnected Outreach for Underrepresented Groups: Success from RET and REU Collaborations Gisele Ragusa, Ph.D. Joseph Cocozza, Ph.D. and Diana Sabogal University of Southern California Abstract
priority in mind, the Historical Electronic Museum started the YoungEngineers and Scientist Seminars (YESS) program in the fall of 2002, for highly gifted highschool students from the Baltimore/Washington areas who have a strong aptitude in mathematicsor science. The first two years of the program consisted of a series of dynamic seminars ontopics as diverse as plasma physics, stealth astrophysics and satellite reconnaissance. In the fall2003, one of the authors co-presented one of the seminars on “Careers in Engineering andIntroduction to Engineering Design”. This seminar involved a variety of hands-on activities thatthe students rated favorably at the end of the seminar series. Despite having excellent speakersduring the 2003-4 program year, the
the South Carolina Commission on Higher Education.Pam King, Clemson University Pamela King is a lead curriculum developer for the Math Out of the Box pre-engineering curriculum project. She writes curriculum for K-5 students and teachers. Her area of expertise is in special education and she is currently investigating the use of Math Out of the Box with special education students. Page 12.175.1© American Society for Engineering Education, 2007 Adapting a Post-Secondary STEM Instructional Model to K-5 Mathematics InstructionAbstractIf Science, Technology, Engineering
the STEM Collaboratory. Taylor has built a large network of professional educators, education researchers and science, technology, engineering and math (STEM) professionals who actively collaborate to improve science education for K-University in San Diego County.Adrienne Marriott, San Diego Science Alliance Program Manager, STEM Professionals With Class Page 22.1323.1 c American Society for Engineering Education, 2011 STEM Professionals With ClassProject IntroductionBy all accounts there is a great need to improve STEM (Science, Technology, Engineering
Legislation, Programs, Reports Focus on ShortageIn the midst of the world’s recognition bestowed on the scientific, technological, engineering,and mathematical minds of Russia for their launch of Sputnik in 1957, it seems that thisoutstanding accomplishment would immediately bring to light the need to address thedeficiencies in the educational system in the United States. More than 25 years later, the NationalCommission on Excellence in Education published A Nation at Risk: the Imperative forEducational Reform, which primarily assessed the quality of teaching and learning in the publicschools41. Educational researcher Paul Hurd stated that “We are raising a new generation ofAmericans that is scientifically and technologically illiterate” 41.More than
, and analysis. The engineering “habits of mind” refer tothe values, attitudes and thinking skills associated with engineering and these include: (1)systems thinking, (2) creativity, (3) optimism, (4) collaboration, (5) communication, and (6)attention to ethical considerations2. While reviewing various instructional models, Brophy et al.8 Page 23.1234.3suggested that in the younger grades, P-12 engineering education could use hands-on activities todevelop a qualitative sense for material properties, spatial reasoning, physics, mechanics, numbersense, and general problem-solving strategies. Then, as students advance, the lessons could buildupon
2006-1086: DESIGN AND EVALUATION OF INNOWORKS: A PORTABLE,INTERDISCIPLINARY SCIENCE AND ENGINEERING PROGRAM BYVOLUNTEER COLLEGE STUDENTS FOR MIDDLE SCHOOL YOUTH FROMUNDERPRIVILEGED BACKGROUNDSWilliam Hwang, United InnoWorks Academy and Duke University William L. Hwang is a senior Angier B. Duke Scholar at Duke University majoring in Biomedical Engineering, Electrical and Computer Engineering, and Physics and minoring in Chemistry. He co-founded United InnoWorks Academy in 2003 and is in his third year serving as CEO and program director of InnoWorks. In addition to his work in K-12 educational outreach, William is conducting research on developing early cancer detection biosensors and pin
: • increase the pipeline of students studying engineering • increase the diversity of students studying engineering • increase the pool of students applying to Cal Poly university in engineeringWith these outcomes in mind, as well as the common reported reasons for not choosingengineering, we developed specific goals for the program: 1) bring high school students of diverse backgrounds to our university campus 2) excite kids about engineering as a profession that is creative and helps society 3) expose students to different engineering disciplines 4) provide positive experiences with hands-on engineering activities, and 5) encourage and help prepare the participants to study engineering in college.We also wanted to assess the program to
AC 2009-830: ENGAGING HIGH-SCHOOL STUDENTS IN ENGINEERING,SCIENCE, AND TECHNOLOGY USING VIRTUAL LABORATORIESMilo Koretsky, Oregon State University Milo Koretsky is an Associate Professor of Chemical Engineering at Oregon State University. He currently has research activity in areas related to thin film materials processing and engineering education. He is interested in integrating technology into effective educational practices and in promoting the use of higher level cognitive skills in engineering problem solving. Dr. Koretsky is a six-time Intel Faculty Fellow and has won awards for his work in engineering education at the university and national levels.Debra Gilbuena, Oregon State University
problem solving matrix was a great tool to get the students to try to start thinking. • I’ve used the videos, the matrix and design of the eCar for the purpose of teaching pre-engineering. • I have had a lot more success in getting to student to judge (and select) work with an open mind using the matrix. Question: In what ways have you seen students benefit from the PD experience? • Engineering is not a foreign thing that makes students stand back and look at you with fear in their eyes. When I describe people who can identify a problem and solve it students seem to take notice and realize that engineering may be something interesting and useful. • The pedagogical
; George, A. A. (2006). Measuring implementation in schools: Innovation configurations. Austin, TX: SEDL.16. Turns, J., Atman, C. J., & Adams, R. (2000). Concept maps for engineering education: A cognitively motivated tool supporting varied assessment functions. IEEE Transaction on Education, 43(2), 164-173. 17. Wheeldon, J., & Faubert, J. (2009). Framing experience: Concept maps, mind maps, and data collection in qualitative research. International Journal of Qualitative Methods, 8(3), 68-83.18. Willerman, M., & MacHarg, R. (1991). The concept map as an advance organizer. Journal of Research in Science Teaching, 28, 705-711.19. Hall, G.E., & Hord, S.M. (2011). Implementing change: Patterns
strengthened by population studies describing the interests and achievement ofcurrent secondary education students. For example, how many U.S. high school seniors Page 14.644.6currently express interests in engineering and have the mathematics achievement to besuccessful in a rigorous undergraduate engineering curriculum? Such data would be quitevaluable. With this in mind, educators and policy makers could target interventionsdesigned to enhance awareness of engineering careers to students with strong academiccapabilities and who have expressed measured interests congruent with engineering, butwho are not explicitly aspiring to engineering-related careers
AC 2012-4711: IMPLEMENTING ENGINEERING-BASED LEARNING INBOSTON ARTS ACADEMY HIGH SCHOOL STEM COURSESDr. Ibrahim F. Zeid, Northeastern University Ibrahim Zaid is a professor of mechanical, industrial, and manufacturing engineering at Northeastern Uni- versity. He received his Ph.D. degree from the University of Akron. Zeid has an international background. He received his B.S. (with highest honor) and M.S. from Cairo University in Egypt. He has received var- ious honors and awards both in Egypt and the United States. He is the recipient of both the Northeastern Excellence in Teaching Award and the SAE Ralph R. Teetor National Educational Award.Mr. Ramiro g Gonzalez, Boston Arts Academy High School Ramiro Gonzalez is
decisions. Another important lessonwas learned during Activity 1. Students seemed to elect modes of transportation they were Page 15.962.6comfortable using or had experience with. To foster further learning, the facilitators let studentsengage in discussion with one another on the pros and cons of taking a plane, riding the bus,riding the train, and driving to a vacation destination. This experience was unique because itallowed students to teach students from their own experiences. It also helped students form moreopen-minded opinions about modes of transportation that they had not experienced.Introduction to Transportation Engineering at Westlake
received a B.A. and an M.S. in biology from Stanford University and a Teaching Credential from the University of California, Berkeley.Pat Pyke, Boise State University Patricia A. Pyke is the Director of Education Research for the College of Engineering at Boise State University. She oversees research projects and initiatives in engineering student success, K-12 engineering and integrated STEM programs. She earned a B.S.E. degree in Mechanical Engineering from Duke University and a master’s degree in journalism from the University of California, Berkeley.Janet Callahan, Boise State University Janet Callahan is the Associate Dean for Academic Affairs at the College of Engineering at Boise
AC 2010-2013: REFLECTIONS AND MEASURES OF STEM TEACHING ANDLEARNING ON K-12 CREATIVE AND PERFORMING ARTS STUDENTSSteven Essinger, Drexel University Steve Essinger is a graduate student at Drexel University in Electrical and Computer Engineering. His research involves applying machine learning techniques to the study of microbial communities. He has designed bioinformatics computer laboratories and improved image processing laboratories for the K-12 classroom.Ryan Coote, Drexel University Ryan Coote graduated from Drexel University in 2009 with a BS in Electrical and Computer Engineering.Pete Konstantopoulos, CAPA High School Pete Konstantopoulos is a mathematics teacher at the Creative
within my college.Of course, I expect to encounter worldviews very different from my own and don’t assume thatmine are more valid. But I am wondering whether the story the administrator is telling alsoallows for other versions of becoming an engineer. The story doesn’t demand outright that Iconform but there is a tacit hostility in the way other points of view are unacknowledged andexcluded, like the feeling of dismissal when somebody doesn’t take the trouble to learn yourname.After telling us about our importance to the economy, the administrator then tells us how exactlywe are important: “The role of technology, and the infusion of technology in our society, has just become limitless, right?”To my mind, these comments even seem to
engineering designapplications to mathematics standards. The structure of the sixth, eighth, and ninth evaluationquestions created some confusion in the minds of the students that resulted in a high variabilityin student responses. The participants were also asked to comment on the institute regarding thethree types of experiences and their relative value. Sample responses are included below. Visiting each of the labs was very relative to the discussions during this course. Also, it put concrete meaning to much of the mathematics we study and teach. We are now able to share with our students many interesting real-world occupations using advanced mathematics
hometown connections over spring break.Though this assignment was beneficial in a number of ways, one of the most importantaccomplishments was the practice the college students experienced in communicating withdiverse audiences. The challenge of determining how to best balance the technical informationthat was important to convey with more easily understood conceptual basics, all while usingappropriate vocabulary, was something the majority of college students discussed in theirreflections. Though engineering instructors commonly emphasize the skill of communicatingwith the audience in mind throughout the curriculum, this type of immersive experienceexemplifies the importance of being able to adapt to a variety of audiences. It is hoped that
connection with course concepts. “I like the opportunity to do hands-on things. It helps ideas we’re talking about in class come to life and makes me more excitedabout what we are learning.” Preparing demonstrations and presentations for high schoolstudents also increased commitment to engineering. “Talking about engineering with highschool students has made me more excited about engineering.” Finally many of the Page 22.1581.13undergraduate students stated that the program had a strong impact on their career plans. Asignificant number of students who had not planned on attending graduate school changed their minds and are now working on advanced
wide variety of engineering programs developed for K-12 education, most exhibit acommon set of characteristics but differ in the scope and approach to packaging the content. Ourproposed ICE-HS curriculum complements existing programs by providing a flexible frameworkfor selecting, adapting and integrating such materials, and it also follows the principles outlinedby the National Academy of Engineering8.The three general principles of the National Academy of Engineering8 include emphasis ondesign; appropriate math, science and technology content; and engineering habits of mind. Thedesign process is the main trait of engineering by identifying and solving problems. Mathematicsand science concepts serve as the foundation to understand engineering
understand adolescents’ approaches to engineering designprocesses while approaching authentic problems. By first understanding adolescents’ approachesto these problems, researchers can identify ways in which they might more fully supportadolescents in developing the habits of mind practiced by professional engineers. Although ahandful of previous studies have studied adolescents’ cognitive activity during engineeringdesign processes, many of these studies have focused on time allocation rather than offering aqualitative description of what adolescents do at each stage of the process.6,7 Moreover, mostresearch on novices’ design activity (which studies undergraduates rather than adolescents) hasexamined their work on pre-determined design challenges
AC 2011-628: CLASSROOM TEACHER - ENRICHMENT TEACHER PAIRS:CO-TEACHING AS A MEANS TO IMPLEMENT ELEMENTARY ENGI-NEERING EDUCATIONPamela S. Lottero-Perdue, Towson University Dr. Pamela S. Lottero-Perdue is an Assistant Professor of Science Education in the Department of Physics, Astronomy & Geosciences at Towson University. She began her career as process engineer, taught high school physics and pre-engineering, and has been involved in both Project Lead the Way and Project FIRST robotics. She was a Hub Site Partner for Engineering is Elementary (EiE) through their National Dissemination through Regional Partners program. As a pre-service teacher educator, she has added engineering to her elementary and early
AC 2010-628: EXPLORING A VALID AND RELIABLE ASSESSMENT OFENGINEERING AND TECHNOLOGY EDUCATION LEARNING IN THECLASSROOMMarcelo Caplan, Columbia College Associate professor at the Science and Mathematics Department, Columbia College Chicago. In addition to teaching responsibilities, Mr. Caplan participates in the outreach programs and activities of the department through its Science Institute and coordinated several of those programs. Actually the main focus is his work to develop programs to bring science technology engineering and mathematics (STEM) to the community through their after school activities, to promote urban youth to be scientific literate and to motivate them to pursue future
AC 2009-1279: ANALYSIS OF CHILDREN’S MECHANISTIC REASONINGABOUT LINKAGES AND LEVERS IN THE CONTEXT OF ENGINEERINGDESIGNMolly Bolger, Vanderbilt UniversityMarta Kobiela , Vanderbilt UniversityPaul Weinberg, Vanderbilt UniversityRichard Lehrer, Vanderbilt University Page 14.214.1© American Society for Engineering Education, 2009 Analysis of Children’ Mechanistic Reasoning about Linkages and Levers in the Context of Engineering Design AbstractReasoning about mechanisms is one of the hallmarks of disciplined inquiry in science andengineering. Despite the central importance of mechanistic reasoning, its origins are not
xEngFac 15 x xMST 2 xMST 3MST 5 x xMST 9 xEdFac = College of education faculty member, EngFac = College of engineering faculty memberMST = Middle school teacher, *element is linked to MS-ETS-3 in the NGSSPracticality and clarity. With a typical middle school science course in mind, the PACED-LRwas applied. The researchers found that use of the PACED-LR instrument was very valuable indiscerning lessons for their feasibility and replicability in a middle school classroom. In a fewcases
-thinking skills that come from studying inSTEM environments.[8] STEM learning environments provide opportunities for students to focuson discovery and the ability to solidify educational concepts in their minds by understanding aconcept in a variety of contexts. A true STEM environment has students engaged in all aspects ofa topic, incorporating knowledge and approaches from all the core K-12 subjects, not just scienceand math. Unfortunately, current methods of educating K-12 students about engineering andengineering careers have shown little impact on improving the number of students pursuing anengineering related degree.[9]Students must have a positive impression of engineering before they will consider it for theirprofession, as behavior will
2006-2645: TECHNOLOGY ASSISTED SCIENCE, ENGINEERING ANDMATHEMATICS (TASEM) EDUCATION AT ALL LEVELS USING K-PH.D.CONCEPTDean Aslam, Michigan State University Page 11.1240.1© American Society for Engineering Education, 2006Technology Assisted Science, Engineering and Mathematics Education at all Levels using K-Ph.D. ConceptIntroduction Although United States is the world leader in a number of technological innovations, othercountries are increasingly challenging this leadership by introducing science, technology, engineeringand mathematics (STEM) education with greater depth of knowledge at the grass root level (elementaryand middle schools). For example
Paper ID #7813Engineering Related Activities Using Digital Fabrication in an InstructionalTechnology Course For Preservice Elementary TeachersDr. Daniel Tillman, The University of Texas at El Paso (UTEP) Page 23.517.1 c American Society for Engineering Education, 2013 Engineering Related Activities Using Digital Fabrication in an Instructional Technology Course For Preservice Elementary TeachersAbstractThis study focused on ways in which an instructional technology course featuringengineering