AC 2012-4900: DEVELOPING ELEMENTARY ENGINEERING SCHOOLS:FROM PLANNING TO PRACTICE AND RESULTSElizabeth A. Parry, North Carolina State University Elizabeth Parry is an engineer and consultant in K-12 STEM (science, technology, engineering, and math- ematics) Curriculum and Professional Development and the Coordinator of K-20 STEM Partnership De- velopment at the College of Engineering at North Carolina State University. For the past 15 years, she has worked extensively with students from kindergarten to graduate school, parents, and pre-service and in-service teachers to both educate and excite them about engineering. As the Co-PI and Project Director of a National Science Foundation GK-12 grant, Parry developed a
artifacts according to the teachers?Phone: is available in dramatic play for the children to pretend to make and receive calls.Children usually talk to each other in dramatic play; they act as though they are calling someone.Some children repeat conversations from home. Children also act out fire safety behaviors, Page 25.1338.4pretending to call 911. Phones resembling both cell phones and land-line phones are used.Balance: Children place counters on the balance. Children may fill the bins of the balance or justpush them up and down. They fill both sides of the balance with objects and transfer them backand forth. In planned activities children use
) strategies including planning,and cognitive and monitoring/fix-up strategies. A mixed-methods approach to research wasapplied to gather comprehensive and valid information about students’ SRL strategies. Theobjectives of this preliminary study were to investigate high school students' design activitiesthat reflect their understanding of task demand and SRL strategies to accomplish the design taskfrom the perspective of design performance (i.e., high- and low- performing students) andgender. A better understanding of these issues will specifically benefit technology and pre-engineering educators as well as the high school curriculum developer.Students at a high school in Colorado participated in this preliminary study (n = 29); 22
teachers for up to fifteenhours per week, throughout the academic year, in implementing the discovery-based learning activitiesin the K-5 classrooms. These same graduate students are also responsible for 1) arranging visits byprominent individuals to the K-5 classroom, 2) researching additional mathematical and scientificclassroom topics, and 3) arranging elementary school campus tours. Since mathematics and sciencecomprise, on average, forty-five minutes of an elementary school day, one graduate student supportsmultiple classrooms. As has been argued elsewhere 5,6,7, there is a growing interest among engineers and teachers inthe development and design of lesson plans that introduce renewable energy and energy generation topre-college
event and the responses were analyzed and compared against acontrol group consisting of 66 students. The theory of planned behavior was used to predictstudents‟ plans for future STEM education. The results of this study suggest that the roboticsprogram based on the guided discovery approach is successful. The success of this program ledto a follow-up study to measure students‟ perceived math and engineering ability, difficulty,STEM attitudes, and intentions to obtain good math grades. The second study indicated thatmany of the positive outcomes of this program persisted six months later.BackgroundScience, technology, engineering, and mathematics (STEM) education in the United Statescontinues to garner national concern.1 A National Academies
endeavor, but finding efficient ways for K-12 teachersto effectively convey these concepts and for students to retain their knowledge has been achallenge. To meet this need, Northeastern University’s NSF-funded CAPSULEprogram was developed as a professional development program that guides STEMteachers to learn how to use and implement engineering-based learning (EBL) in highschool classes. Content included are the engineering design process, CAD modeling,capstone projects, and action plans for the academic year. Two JQUS teachers (math andtechnology) attended the summer 2010 CAPSULE program and implemented actionplans during the 2010-2011 school year.This paper covers the details of the JQUS math and technology CAPSULE curriculumand implementation
districts to plan, deliver and sustain atargeted inservice teacher professional development and a middle and high school STEM studentcurriculum intervention. Recognizing that understanding informational text is a major problem inurban schools and a major barrier to science and achievement, we have worked at improvingstrategic instruction in science literacy for our teachers and their students in addition to foci oninquiry instruction with emphases on engineering problem solving and experimentation. Resultsof this teacher and student focused STEM educational intervention has revealed a dramaticincrease in student interest in scientific experimentation, engineering problem solving andincreased science literacy and achievement.IntroductionEngineers
inquiry, creativity, teamwork, and collaborative problemsolving and can be used by individuals and organizations to plan and conduct successfulcommunity outreach events that increase public understanding and appreciation of engineeringand the role it plays in everyday life. Modeled after the popular publications Family Science1and Family Math2 a new publication titled Family Engineering: An Activity and EventPlanning Guide3 will serve as a valuable resource for professional engineering societies andstudent chapters of those societies as well as formal and informal educators who want to host aFamily Engineering event in their community.With support from the National Science Foundation, hands-on activities that introduce familiesto traditional and
, NCProgram overview and partnership structureIn 2007, our school was designated a magnet school by our local school board due to re-districting. The community was surveyed and a school with an engineering theme wasoverwhelmingly supported. The school’s staff began researching and planning engineering in aK-5 setting and was contacted, through chance, by the university. Throughout the rest of theyear, both parties worked together to develop and plan an engineering magnet school that wouldutilize the Engineering is Elementary curriculum as a primary tool. The plan addressedprofessional development, community/parent support, materials support and partnership supportfor the first three years initially.During the 2007-2008 school year, our partner at the
include engineering education, teaching strategies, assessment and evaluation of program objectives and learn- ing outcomes, student teamwork and group dynamics, business and technology management, strategic and operational planning, project management, and technical sales and marketing. Prior to joining the University, Hunter worked for several companies, including IBM and Anaquest, Inc., as an Engineer, Engineering Manager, Technical Sales Professional, and Director of Informational Technology. At the University of Arizona, she oversees the freshman engineering experience, which includes the introduc- tory engineering course required of entry-level students. She also teaches undergraduate/graduate courses in the
/demonstrations and ETKs are interesting and useful.In general, attendees rated them as good or excellent and felt very or somewhat comfortableperforming and teaching the experiments/demonstrations and ETKs after the workshops. Morethan 75% of the teachers plan to use experiments and/or demonstrations while more than 70% ofthe teachers plan to use ETKs. The written materials provided were rated as very helpful.IntroductionMexico is suffering from a national crisis in science and math education. At the elementary,middle, and high school level, Mexican students perform poorly on standardized tests incomparison to other developing countries. Additionally, most P-12 Mexican teachers never getthe chance to learn about engineering1-4.Universidad de las
(tests, quizzes, prompts, work samples, observations) that will show that studentsunderstand, as well as student self-assessments and reflections about their learning; and Stage 3) planned learning experiences, the sequence of teaching and learning experiences thatwill equip students to engage with, develop, and demonstrate the desired understandings.The ICE-HS Framework was developed using these steps in a workshop led by the authors. Theworkshop resulted in a curriculum with vision, mission, mission goals, measureable objectivesand four-year engineering framework customized for the Da Vinci high school. The sequence offour engineering courses shown in Figure 1 was designed based on the workshop results
students. More specifically, Collins assists with planning, implementing, managing, and reporting of project activities which include survey development, coordination of data collection, interfacing with data managers, coordination of quarterly meetings of outreach providers to gather feedback, identify best practices, and disseminating findings to stakeholders. In addition, she assists with annual report writing and conference presentations. Prior to working at NC State, Collins was the Online Learning Project Manager for NC TEACH and Project Co- ordinator for NC TEACH II at the UNC Center for School Leadership Development. Key responsibilities there included the development, implementation, teaching, and assessment of
students built K’NEXelectrospinning stations, and identified the process variables and material’s propertiesthat control the resulting fiber diameters and product yield. They wrote a short proposalpositing their hypothesis and a detailed experimental plan to optimize the fiber diametersand yield using their electrospinning station. The students implemented their experiment,trouble shot equipment failures, and collected their nanofibers. In collaboration with alocal university their nanofibers were imaged using an SEM and the students analyzedthe fiber diameter distributions with Image J software and a statistical package in Excel.The electrospinning activity was supported through a series of short lectures and inquiry-based activities designed to
, goals, and objectives of theonline STEM journal, while Section III outlines its aims and scope. Section IV presents a seriesof workshops organized to teach students the process of conducting academic research. SectionV outlines a future evaluation plan used to rate the journal’s performance. Section VI discussesthe journal’s potential impact on STEM education, and Section VII provides concluding remarks.II. Purpose, Goals and Objectives This section discusses the purpose, goals, and objectives of creating an online, open-accessSTEM journal for the 7-12 grade audience. The journal is designed to enhance middle school andhigh school students’ and teachers’ awareness of modern engineering and science practicescurrently ongoing in academia and
, usually portrayed by drawing plans or performing specific parts of the engineering design process, an implied client or public use is intended. • Technician – Computer or electronic technician portrayed by a person fixing something electronic. • Design/Create Single – Hobbies, crafts, and designs for personal use or making one object for a specific person. • Tradesman – Carpenters, plumbers, welders, etc. where a person is fixing something that is not mechanical. • Mechanic – Fixing a vehicle, engine, machine or something else that is mechanical. • Laborer/Builder – Building houses, roads or buildings through physical labor and other forms of manual labor not covered in other categories
in Elementary Schools is a two-year research project fundedby the National Institutes of Health. The Engineering Design Models in ElementarySchools project model is comprised of teacher professional development, cross-curriculargrade level teacher planning, and ongoing programmatic alignment. The teacherprofessional development phase provides implementation strategy including ensuringfoundational understanding of Engineering, Science and Technology, using engineeringas a core subject integration tool, using recording and assessment tools to documentstudent process and learning outcomes. Additionally the teacher professionaldevelopment involves implementing problem based learning approaches andunderstanding competency alignment with an
activities intolocal K-8 classrooms as a means to reinforce the students’ math and science learning. Bydeveloping activities and utilizing preexisting activities that complement the state math andscience standards, the ASU’s Ira A. Fulton Schools of Engineering is impacting K-8 studentlearning through training teacher candidates (student teachers) how to incorporate these activitiesin the classrooms to which they are assigned. As may be obvious, the mechanics involved indelivering such an innovative and far-reaching initiative as this involves many individual, yetinteractive pieces. While planning for the collaboration, there were seven major areas ofconsideration. The Teachers’ College iTeach Program The development and/or adaptation of
, however, has notbeen easy6-9. The interest in promoting inquiry-based teaching has certainly generated actualinstances of inquiry-based instruction - specific curricula and instructional plans. Thesehave limits, though, as specific examples rather than broader concepts. In reviewing thestate of inquiry as an organizing theme of science education, Anderson stresses “teachershave to be the focal point of a move towards more inquiry-oriented science education”4.Our concern, therefore, lies with what conceptual resources have been provided tosupport teachers in enacting inquiry. At the other end of the spectrum from specificinstructional plans, well articulated, abstract goals have been established. Thoseembedded in the various standards documents
more than 20,000 students.The Texas Harmony charter school system’s mission is “to prepare students for higher learningin a safe, caring, and collaborative atmosphere through a quality learner-centered educationalprogram with a strong emphasis on mathematics, science, engineering, and technology”. 11Harmony students are predominately female (51%), Hispanic (47%), and low SES (56% free orreduced cost lunch).Course offerings at HPS.Texas provides three types of graduation plan: (1) Minimum (2) Recommended Graduation Plan,and (3) Distinguished Graduation Plan. HPS do not offer to their students to graduate withMinimum graduation plan because it only requires students to complete 22 credits in four-yearand they only need to take 3 years science, 3
science from Smith College in 2010 and her M.S. in civil engineering from Georgia Tech in 2011.Miss Stefanie Brodie, Georgia Institute of Technology Stefanie Brodie is a second year graduate student currently pursuing dual master’s degrees in transporta- tion engineering and urban planning with the intent to apply for the Ph.D. program in transportation engineering in the Department of Civil and Environmental Engineering. She holds a bachelor’s degree from the University of Maryland in civil engineering. Her research interests focus on the interaction of transportation networks and land use through accessibility, especially regarding non-motorized and tran- sit modes of transportation, and the application of that
degrees in science, technology, engineering andmathematics. (de los Santos, Keller, Nettles, Payan, & Magallan, 2006) 22.Given population trends, the supply of the future workforce will come from a young, Latinopopulace. As indicated by President Obama (U.S. Department of Education, 2011) 23,“To…secure prosperity for all Americans, we must out-innovate, out-educate, and out-build therest of the world. The Latino community is integral to that plan to win the future.” (p. 7) Asprojections indicate that Latinos will account for 60 percent of the Nation’s population growthbetween 2005 and 2050, their success in education and in the labor market is of criticalimportance to maintaining a competitive American economy.In 2010, there were 17.1 million
to engineers from companies and a nationallaboratory presented sessions on renewable energy topics. Graduate students are paired withteachers during these sessions to collaborate on experiments and projects that deepen theunderstanding of both the graduate students and elementary teachers in mathematics and science.Lesson plans are provided for each of the presentations during the workshop that teachers canreadily use in the elementary classroom. The summer workshop also allows elementary teachersand graduate students to create rapport with one another as they will be supporting one anotherthroughout the academic year and will benefit from having a working relationship formed beforethe academic year begins. Approximately half of the summer
. She recently completed a four-year assignment from NASA headquar- ters to establish a systems engineering curriculum at the University of Texas, Austin, as a pilot for national dissemination. Her efforts in systems engineering curriculum can be located at http://spacese.spacegrant.org/. Guerra’s most recent position at NASA Headquarters was Director of the Directorate Integration Office in the Exploration Systems Mission Directorate. In that position, her responsibilities involved strategic planning, international cooperation, cross-directorate coordination, architecture analysis, and exploration control boards. Guerra also spent three years at the Goddard Space Flight Center as Program Integration Manager for
with their abilities to teach engineering 8, 9, 10. However,many teachers have been able to overcome these barriers by using comprehensiveengineering units, such as the Engineering is Elementary (EiE) units, developed byresearchers at the Boston Museum of Science. The EiE units are designed to incorporatea science topic, an engineering discipline, and a design challenge, and provide guidancefor students to learn about and use the engineering design process consisting of five steps:ask, imagine, plan, create, and improve10. Our current research project at TuftsUniversity, entitled Integrating Engineering and Literacy (IEL), takes a similarlyintegrative approach to engineering in elementary curricula, but aims to empowerteachers to incorporate
self-reported feelings of confidence and preparedness to facilitate EiE activities with their students.EiE Professional Development Workshops: An OverviewThe majority of EiE professional development workshops take place at the request of a school ordistrict that is planning to have its teachers implement an EiE unit in their classrooms. (EiE alsohosts professional development workshops for teachers at the Museum of Science, Boston, albeitless frequently.) District or school-sponsored workshops are typically attended by in-serviceteachers and focus on one specific EiE unit, ideally the unit that is to be implemented by theworkshop participants in their classrooms. These workshops typically take place on a single dayand span four to six hours
students aboutdesign decisions; group discussions and interactions (e.g., during the planning, creation, orimprovement phases of the engineering design process); and the testing process. The mostsignificant challenge regarding the cameras was that it was often difficult for teachers to recordwith the camera and manage the other responsibilities of teaching simultaneously. Before andafter teaching with the cameras, teachers were largely positive about their and their students’comfort with the cameras, and identified multiple instructional benefits of the cameras.Instruction was enhanced most especially by the ability that the cameras afforded to encouragestudents to provide good explanations and use evidence-based reasoning. The use of
designs the best toy and develops the most effective marketing presentation will be granted an exclusive contract with NASA to begin manufacturing all the toys for the people who will be living aboard the space station. Each Toy Company not only has to design a toy that will function in space, they must provide a proof of concept prototype and develop a marketing plan to sell their toy to potential space families.”Students are given the opportunity to ask questions which lead to a discussion and lessons aboutthe International Space Station. Students are then assigned to work in heterogeneous teams offour which become their “Toy Company” based on grade, gender and their responses to theMultiple Intelligence Test for Young People17
relevance is influential inattracting and retaining students (in particular underrepresented minorities) in STEMdisciplines.2,3,8 Thus, inquiry-based activities were emphasized in the course modules. Theformat is aligned with research-based GCS and state standards for instructional planning anddelivery. The major components include (1) goals that are aligned with the North Carolina K-12Curriculum, (2) activator activities that test students’ prior knowledge, (3) teacher input activitiesin which the instructor teaches new knowledge through demonstrations, (4) an inquiry-basedsmall group activity facilitated by students, and (5) a concluding activity that requires students toreflect on what they learned and share their findings with others. A rubric
class or physics class. While all of the students participated inthe InSPIRESS project not all of them were planning to pursue a STEM career in college if theyplanned to attend college at all.Implementation: The researchers in this study collected multiple measures and utilized a quasi-experimental design to assess the impact of the project’s authentic learning activities on thestudents’ attitudes, motivation and self-efficacy toward engineering.At the beginning of the school year, the students were provided with consent forms explainingthe research study. After receipt of the signed consent forms, the Pre-surveys were administeredby the researchers to students who, along with their parents, agreed to participate in the project.The rest of the