content also focuses on problem-solving skills and career orientation emphasized in school-to-work initiatives. Electricity & Electronics Challenge: This middle school kit provides students with team activities that experiment with series and parallel circuits, magnetism, and an introduction to electronics. High School Electricity & Electronics Challenge: This Challenge takes high Grades 9 & 10 school teams through in-depth experiments involving transistors and semiconductors, analog integrated circuits, and digital integrated circuits.The AWIM CurriculumThe AWIM materials
of Science degree with a dual major in Psychology and Technology from Brigham Young University, Jared decided to pursue a career in understanding teaching, learning, and technology. He began teaching for three different public high schools in Utah while he finished a Masters degree in Technology Teacher Education. He worked for two major IT corporations and also spent a year as a project management consultant in the IT field before he chose to pursue a PhD from the University of Illinois Urbana-Champaign. At Illinois, he coordinated an online masters degree program, was an NSF sponsored technology trainee, and consulted with faculty from the College of Engineering and College of
pursue educational and career pathways in the high-growth, high-paying STEM sector.Over the past 10 years, growth in STEM jobs [in the United States] was three times as fast asgrowth in non-STEM jobs.9 STEM employment is expected to grow 17% between 2008 and2018, outpacing the 10% growth projected for overall employment.9 Also, the average annualwage for all STEM occupations was $77,880 in May 2009, significantly above the U.S. averageof $43,460 for non-STEM occupations.9 In the United States demand for STEM workers isunmet. In the STEM occupations, job postings outnumbered unemployed people by 1.9 toone.9 These national workforce trends are also reflected in Hawaii, where projections indicatethat there will be 29,000 STEM-related jobs to be
AC 2011-2856: A MODEL FOR ENHANCING PROJECT LEAD THE WAYTEACHER KNOWLEDGE IN SOFTWARE APPLICATIONSLaura E. LeMire, The Community College of Baltimore County Laura LeMire, an alumna of the University of Maryland at College Park with a B.S. and Masters in Geotechnical Engineering, started her career at Baltimore Gas and Electric (BGE). During her career there, she was responsible for substation and transmission construction projects, relocation and installa- tion of BGE facilities for Oriole Park at Camden Yards and for a new Light Rail system, and for im- proving service reliability. After obtaining her MBA, Laura became the Director of Corporate Purchasing and was also a financial analyst handling investor relations
goals for its K-12 educator development. - Inspire and motivate students at all levels to pursue careers in science, technology, engineering and mathematics (STEM). - Enhance K-12 educator knowledge in STEM cross-curricular space related fields. - Increase K-12 student knowledge in STEM education through age-appropriate space related activities. - Increase underrepresented and underserved participation. - Enhance career exploration by including space science professionals, NASA employees, and NASA-sponsored scientists, technical and engineering experts as role and career models.In 1990, the consortium imported a workshop from NASA Ames5 as the first offering of aprogram that became the “LiftOff
methods, classroom dynamics, and all aspects of afuture faculty career. The program builds on this course by also providing workshops to learnmore about students learning, communication skills and teaching in an apprenticeshipenvironment designed so that Fellows learn from educators (participating teachers) as theFellows provide them support in engineering content, design practices and career choices. The resource team coaches consist of experienced educators and engineers; most are retired.This support system is integral in unit development. In fact, the primary resource coach for eachteacher must “sign off” on each unit prior to it being considered completed and ready forteaching. A standard template for a unit and activity is made available
principles and can stimulate theirinterest in physical science, engineering, mathematics and technology (STEM) careers. Thispaper describes a collection of learning experiences developed by researchers from variousfacilities in the Network for Earthquake Engineering Simulation (NEES) that are scalable for K-16 learners. Assessments targeting the instructors of the outreach activities, the participating K-12 teachers, and the student participants are described, and results are presented that illustrate theeffectiveness of the lessons in enhancing the students’ understanding of engineering principlesand in generating interest in STEM careers.2.0 IntroductionEarthquake engineers protect lives by understanding the effects of earthquakes on structures
professions found in these areas so they mayconsider them as future career choices3. For either of these goals to be attained, the proposedexhibit must accomplish three tasks: (1) attract visitors, (2) motivate them to become engagedwith the exhibit, and (3) facilitate the acquisition of the knowledge, understanding, and attitudesthe exhibit is designed to convey.Typical exhibits in an hands-on museum require a great deal of development effort. On averageit takes 2 to 3 years, a solid budget (anywhere from $100,000 to a few million in extreme cases,depending on complexity), and a diverse team working full time to create an individualinteractive exhibit. Similar effort was invested in the exhibit described here, except that the teamconsisted mostly of
AC 2009-1722: ENGINEERING ENERGY SOLUTIONS FOR THE INSPIRESCURRICULUMNichole Au, University of Maryland, Baltimore County Nichole Au graduated Cum Laude in 2008 with a BS degree in Chemical Engineering from the University of Maryland, Baltimore County. She plans to finish her MS degree in Chemical Engineering also from UMBC in May 2009, after which she will pursue a career in industry.Julia Ross, University of Maryland, Baltimore County Julia Ross is Professor and Chair of the Chemical and Biochemical Engineering Department at the University of Maryland, Baltimore County. Her technical research interests are in the area of cellular engineering. In particular, her work focuses on bacterial
not be repetitive. In addition to exposing students to thinking like an engineer, another goal of the programis to inform students about the numerous fields of engineering, its importance, and the manyopportunities and career paths available. These goals are accomplished through presentationsdelivered by the weekly guest speakers. Every year a new group of speakers is invited to sharetheir experiences of why they chose a career in engineering, the challenges they may have beenfaced with, the career choices they’ve made, and their advice to prospective engineeringstudents. Speakers have been both male and female ranging from undergraduate engineeringstudents to doctorial students and medical students to professors and industry
Paper ID #7945A Study of the Impact of a National Project Based Learning Curriculum(PLTW) on Student Continuation to Postsecondary InstitutionsDr. David G. Rethwisch, University of Iowa Dr. Rethwisch is a professor of chemical and biochemical engineering at the University of Iowa. His current research interest is assessing the impact of secondary curricula (particularly problem/project based learning curricula) on student interest and performance in science and mathematics, and on their interest in careers in STEM fields.Dr. Soko S Starobin, Iowa State University Dr. Starobin’s research focuses on gender issues in STEM
of them to pursue STEM careers so that they cancreate those future innovations by entering engineering professions.1Possible strategies to address the engineer shortage for the future are being developed by severalgroups.4 These include development of high school-level engineering courses to high schoolstudents to engineering-based First Robotics competitions.5 Clearly, there is evidence that theseprograms serve to increase student interest in engineering as a career. However, they may notprovide students an opportunity to experience the university setting or exposure to the breadthand variety of engineering projects.4 Various universities instead may provide summer camps asa means to introduce students to STEM disciplines and create a
PartnershipWPAFB’s AFRL/XPPD, Domestic Partnering Branch, was selected by DoD as the coordinatorresponsible for the NDEP implementation in the state of Ohio. The selection was made based onthe strong series of on-going STEM programs at AFRL been managed by XPPD. One of theseprograms is the Dayton Regional STEM Center partnership. The Center was created in 2007 viaa National Governors Association competitive process to be the hub of STEM curriculum design, Page 15.909.2training and support for educators in order to advance the goal of preparing all students with theskills and knowledge to participate in the high-demand STEM careers of the future. The
. Michaels, AZ Page 15.745.1 Seth Hodges, B.Ed., is in his fourth year of teaching science on the Navajo Indian Reservation in St. Michaels, Arizona. After a lengthy career in the U.S. Military, Hodges earned his undergraduate degree in Earth Science Education from Western Washington University. He has taught biology, physical science, earth science, and geology as well as geography and economics.© American Society for Engineering Education, 2010 Hodges is currently pursuing his Master of Science in Science Education (MSSE) degree from Montana State University and is on track to graduate in
studies and b) how thesecourses work together to help students develop engineering skills. Assessment instrumentsincluded beginning, middle, and end-of-design experience questionnaires, videotapes of studentpresentations, and a reflective letter to their parents. Through the data collected, the paperanswers the following questions: a) Are real-life student design projects an effective means ofintegrating different courses? b) Did the real-life student design projects provide better studentunderstanding of engineering in general? c) Did the exercise of designing and presentingprojects, stimulate student interest in science and engineering careers? This pilot assessmentplan will be used to improve the program as well as to assess student learning
the course would offer a diverse group of studentsan introduction to engineering as a possible career without the risk involved in taking the courseat the university or committing to an engineering major. The pilot course was taught by HHSteacher Jim Clark, whose credentials include BS EE, MS EE, a M Edu. and five yearsprofessional engineering experience at Motorola. Twenty HHS students completed the pilotcourse in a full academic year and each received three units of college credit. Of these twentystudents, five joined the UA COE in fall 2009 and to date, all five have graduated with anaverage GPA of 3.34. Of the 2009-10 cohort, 17 students remain in the COE today and most areon target for graduation within the next academic year. Details
challenges involved withmanufacturing of pharmaceutical products, and thus help educate future generations of students,helping create a strong pipeline of talented students interested in pursuing careers in engineeringand science.The ERC-SOPS is a four-university project, involving about 30 faculty, with a central systems-oriented theme of developing a model-predictive, integrated framework for systematicallydesigning materials, composites, and the processes used to manufacture them. The NJIT ERCincludes seven faculty members, who mentor research projects aligned with three main researchthrusts: 1) A New Manufacturing Science for Structured Organic Particulates, 2) CompositeStructuring and Characterization of Organic Particulates, and 3) Particle
future studies and careers in engineering. We addressthe mathematics topics that are presented in these curricula and how the topics are sequenced andpresented to students. The results of our content analyses reveal differences in the organizationof the intended pre-engineering and academic curricula. The PLTW curriculum addresses farfewer mathematic content and process standards when compared to academic curricula, and alsoexhibit far fewer points of potential integration of mathematics knowledge than expected, giventhe clarion call made in recent national policy reports and the Perkins Act.Curriculum AnalysisCurricula—the textbooks, activities and materials that make up a course— provide a critical linkbetween standards and accountability
Describe the various careers in biomedical engineering 1.67 4.19 2.52 Develop techniques for advising students about careers and preparation requirements in engineering 1.89 4.56 2.67 Locate popular sources to develop engineering learning activities 1.96 4.48 2.52Pre- and Post-Knowledge Content Tests ResultsOut of 31 teacher participants, 94% completed the pre- and post-content knowledge surveys.When comparing the average pre- and post-test percentage scores for the total MarathonHSTEAP participants (N=29), the average pre-test percentage score was 33.56 and the averagepost-test percentage score was 75.30, yielding a
Funding Presentatio Context g Teachin and n & EPICS g Design Sustaining Preparation Culture ProjectsLunchIntro to Engr. AssessinService Presentatio Careers g Teams Labview HumanLearning Design Solidworks ns of Plans & and Advance Advanced Centeredand the
workingcollaboratively to integrate an innovative robotics curriculum into science, technology,engineering, and mathematics (STEM) courses in the Boston Public Schools and other raciallydiverse and economically disadvantaged Massachusetts school districts. The project issponsored by the National Science Foundation (NSF) program, Information TechnologyExperiences for Students and Teachers (ITEST). The project targets 7th and 8th grade STEMteachers, with students participating during summer and after school. The project addresses theurgent need to enhance student interest and performance in STEM courses, while fosteringskills that are important prerequisites for IT careers. In the near term, the project is helpingMassachusetts schools and students meet statewide
State University. Thepurpose of the six week intervention, part of a campus-wide Upward Bound program was to givestudents a realistic view of engineering as a career option.To evaluate the effectiveness of the intervention two assessments were used. A pre-post Drawan Engineer1 with a written component was used to measure perceptions of engineers. Morestudents self-identified themselves as engineers following the intervention. Overall the draw anengineer shows an increased understanding of what is involved in engineering. Post-interventioninterviews also examined students’ changes in attitudes about engineering. Interview dataindicates increases in student intentions to pursue engineering and that the format of theintervention gave students a
" activities, demonstrations, projects, and experiments. More than 500 studentsparticipate annually.Following Mission Science is our Mathematics, Engineering, Science Achievement (MESA)program. MESA identifies students with interest and potential for an engineering career. MESAstudents meet on a regular basis and participate in a variety of motivational, informational,academic, and competitive activities that prepare them for college and a major in engineering, math,or science. The program exists in twenty-two middle and high schools, serving nearly 1500 studentseach year, with more than 90% of the seniors enrolling in college upon graduation.During the summer, we offer Discover Engineering, a month-long, residential program to introducehigh school
2007 there were 20 (out of 63).Project EAST also positively impacted student interest in pursuing STEM careers. In 2005, 61%of students entered the program with a desire to pursue a STEM career and that numberincreased to 71% after participation. In 2006, the initial percentage of interested students was66%, which increased to 72% after participation. In 2007, the initial percentage of interestedstudents was 58% and the number increased to 66% after participation. When these numbers arebroken down further to show just the experience of the female students, the number leaving theprogram with the intention of pursuing a STEM career was 72% in 2006 and 51% in 2007.Again, of special interest are the females who began the program reporting no
session. Workshops and tours include: • Inquiry and Notebooks • Mathematics Pedagogy • Standards • Integration of Science in the Elementary Classroom • Equity in the Classroom • Career Pathways in STEM fields • Power Plant Tour • Bioremediation Site TourThe curricular work session provide time for the teams of teachers to refine their lesson plansand ensure that their lessons are inquiry based and tied to the Standards. The lessons developedbased on the water recycle research experience include:Lesson 1) Water Dilemma Simulation Objective: Given a water dilemma scenario, the student will analyze the problem and determine a solution based on his/her given role by creating a t-chart with at least three advantages and
content testing –With support from teachers, Fellows create tests and quizzes that specify and measure lesson concepts. They use multiple choice, matching, true/false and fill- in-the-blank formats. Tests are administered pre- and post-instruction.‚ Student attitude surveys – All grades 3-8 students participating in the TEAMS program rate their level of interest in engineering and confidence in their knowledge of engineering as a career. Students rate their attitudes on five-point Likert-type scales. Surveys for elementary students use age-appropriate terms and questions are often read aloud.‚ Rating of Fellow teaching skills – Teachers, Fellows and ITL program staff provide feedback on Fellow teaching skills, including content
discussion, as well as submission of assignments by teachers. This paperdescribes the process, as well as the assessments from the first cohort.Index Terms – Pre-engineering Curricula, Robotics, Attitudes toward Science, Mathematics andEngineering, Knowledge about engineering careers.IntroductionOver the next few years, the demand for engineers is expected to increase faster than for all otheroccupations combined but the number of students pursuing careers in engineering is notincreasing adequately to meet this demand. In fact, the number of students completingbaccalaureate degrees in engineering has increased very little over the last decade1. Increasingthe presence of engineering in K-12 education, especially through the application of science
interactivepedagogies such as inquiry based learning will provide students with meaningful experiencesthat showcase the importance and satisfaction of pursuing careers in STEM1.Research has shown that students as early as middle school develop an affinity or aversion toSTEM2,3. In one study, it was found that “life experiences before 8th grade may have impact onfuture career plans.” The researchers further conclude that in order “to attract students into thesciences and engineering, we should pay close attention to children’s early exposure to science atthe middle and even younger grades4.” Through this research, as well as the initiative set forthby the National Academies, one can conclude that a focus on the middle school years is crucialto help excite and
Society for Engineering Education, 2011 Stimulating K-12 Student Interest through Industry, Engineering College and K-12 School PartnershipsAbstractIndustries that employ engineers have an interest in supporting the children of their communitiesthrough pipeline programs to encourage K-12 students to develop interest and excel inmathematics, science, technology, and engineering. This can be accomplished by supporting theefforts of local K-12 schools to encourage students to pursue careers in STEM fields. We havefound that industry often has funding and a base of volunteers but may lack the knowledge, staff,and other means to effectively work with K-12 schools to accomplish these STEM educationgoals.This gap can be
werescreened for past and current criminal and sexual offenses.Sample ActivitiesWhile the specific activities have varied and some have evolved, both the residential anddaytime only programs have all included a sport aerodynamics activity, a designmethodology activity, a biomechanics motion capture and analysis activity, local sportfacility, science or other engineering facility tours and final presentations from thestudents to the sponsors, faculty, staff and their families. The activities can be found atthe SWE Internet Activity Center 3. In addition, the residential programs hosted by MITand the University of San Diego also included a CEO/Executive Breakfast and a CareerPanel.CEO/Executive Breakfast and Career Panel:In addition to the engineering