consecutively for every term of his collegiate career and was awarded the Rath Distinguished Scholarship by the Wisconsin Association of Independent Colleges and Universities (WAICU). In addition, Justin is actively involved in multiple on-campus organizations. He has been elected to serve as Vice President of the Wisconsin-Delta chapter of the Tau Beta Pi Engineering Honor Society for the 2014-2015 academic year, and is working closely with the current Vice President on a unique collaborative project to educate high school students on extraterrestrial plant growth. Justin is also engaged in his second Rocket Design Competition, sponsored by the Wisconsin Space Grant Consortium, as well as an active member of the MSOE Swing
program. This specific GK12 grantpairs 10 teachers with 10 Ph.D Students and is designed to help bring the National Academy ofEngineering’s (NAE) Grand Challenges of Engineering [3] to the forefront in science classroomsthroughout inner city schools. As a part of the program, all fellows design classroom modulesthat integrate their own research, one specific NAE grand challenge, and the rigorous demands ofthe state standards in science. The goal of these modules is to spark curiosity in underprivilegedand minority students so that they pursue engineering related careers and consider the socialimplications of the engineering grand challenges.[4, 5] The modules designed by the NSF GK12fellows and their teacher pairs are first piloted within a
opportunities and specialchallenges to the incorporation of engineering into the traditional school day. Lessons learnedover six years through several federal, state, and corporate-sponsored programs show that:blending research-based engineering curricula and professional development with scienceinquiry and support for science content learning for teachers has significant impact on teacherlearning and student learning; that elementary teachers, students, and other stakeholders embraceengineering once initial concerns are allayed through professional development and evidence onlearning gains; that awareness of engineering careers and engineering/technology contributionsto society increases; and that addressing the particular needs of various partners
expectations about theirSTEM interests and abilities before they enter middle school. Little research explores the ways inwhich parents and elementary teachers, whose science and math skills are often lacking, mightsubtly (or explicitly) influence children’s interest and achievement in science and math.Research and intervention projects since How Schools Shortchange Girls1 indicate patterns ofprogress in improved instruction and innovative learning opportunities.2 Still, many brightstudents, particularly women and minorities, choose not to pursue engineering careers.3 AsHalpern et al.4 assert the differences in male and female expectations and choices regardingSTEM learning are much more complex than previously assumed. So too, the perceived gendergap
context of current high school science classrooms that sufferfrom many problems: 1) state standards typically require many different topics to be reviewed ina time-frame that is unrealistic; 2) students may not appreciate why the material is relevant toeveryday life or their future careers; 3) many teachers do not fully understand the content theyare teaching; and 4) many teachers have weak inquiry-based pedagogical skills 5.To change this situation, we must have teachers do more than create a few lectures or demosbased on their summer research experiences and we must provide a large amount of support forteachers to help them create powerful learning experiences in their classrooms. Our curricularapproach is 6-to-8-week-long DBL experiences that
, aviation, safety, and human factors. Professionals21 representing public and private sector transportation organizations are invited as speakers to22 these summer camps to discuss career opportunities (9–12). These programs are hands-on, and23 students gain real-life experience working with faculty. Aelong and Aelong (12) described the24 programs delivered in Delaware and Vermont and evaluated the students’ attitudes about the Page 24.1402.525 programs both quantitatively and qualitatively. Both of the programs were described as a26 resounding success based on the participant responses. In some instances, undergraduate
Engineering Education (ASEE) since 1995; and has served in leadership roles and on committees for the Division since that time, as well as for the K-12 Outreach Division. He has also served in various leadership roles in disciplines related to Career and Technical Education. Dr. Clark is recognized as a Distinguished Technology Educator by the International Technology Engineering Education Association. He currently consults to a variety of businesses, educational agencies and organizations.Dr. Vincent William DeLuca, North Carolina State University V. William DeLuca, Ed.D. Dr. DeLuca taught middle school, high school, undergraduate and graduate level technology education in his 30 year career as a teacher and researcher
understanding of the basicconcept of electronics and an appreciation of evolutionary milestones of sophisticatedelectronics systems. In support of these objectives, the museum’s priority is to provide amotivational environment for students of all ages to gain an understanding of basicengineering and the career opportunities available through higher education. With thispriority in mind, the Historical Electronics Museum began the Young Engineers andScientist Seminars (YESS) program in the fall of 2002, intended for highly gifted highschool students in the Baltimore/Washington area with a strong aptitude in mathematicsand/or science. The first two years of the program consisted of a series of solelyseminars and covered topics as diverse and dynamic as
provided help with the engineering, science, and mathematics concepts needed tosupport and supplement the units of Engineering is Elementary.The teachers were also asked to develop with the assistance of the community collegefaculty an appropriate plan for the professional development of their elementary schoolcolleagues over the next year and to present the plans to the districts.An outside evaluator was employed to gather and evaluate data and report the results ofthe summer's activities. His findings are included.IntroductionIn 2003, by act of the Massachusetts legislature, in an effort to increase the number ofstudents choosing STEM (Science, Technology, Engineering, and Mathematics) careers,a STEM Pipeline Fund of $2.5 million was established
Manager at the National Science Foundation funded Center for Sensorimotor Neural Engineering as well as an active researcher in the University of Washington Department of Neurological Surgery.Mr. Michael W. Shaw, Cleveland STEM High School Education: B.S, in Molecular and Cell Biology, University of Washington (Seattle) M.Ed in Secondary Education (Biology), University of Washington (Bothell) I was born and raised in Los Angeles, CA, and moved to the Pacific Northwest over 20 years ago with my wife and two children. I joined the US Marine Corps Reserve in 1998 in order to help complete my education and was activated in 2003 in support of Operation Iraqi Freedom. After 2+ decades in another career, I chose to teach
board of Learning and Instruction and Teachers College Record. In 2006 she was awarded the U.S. National Science Foundation CAREER grant award and received the Presiden- tial Early Career Award for Scientists and Engineers from the President of the United States. She has conducted and advised on educational research projects and grants in both the public and private sectors, and served as an external reviewer for doctoral dissertations outside the U.S. She publishes regularly in peer-reviewed journals and books, and has held both elected and appointed offices in the American Psy- chological Association (APA). Dr. Husman was a founding member and first President of the Southwest Consortium for Innovative Psychology in
future high-energy astrophysics missions, particularly the James Webb Space Telescope. She Page 25.533.1 c American Society for Engineering Education, 2012began her career at the Johnson Space Center working for Eagle Engineering and SAIC, focused on con-ceptual design of advanced spacecraft for human missions to the moon and Mars. Guerra earned a B.S inaerospace engineering and a B.A. in English from the University of Notre Dame. She received a master’sof science degree in aerospace engineering from the University of Texas, Austin
involve low complexity, andcompetitions for advanced students that require more sophisticated technological researchand development, which can be continued in the RoboCup major leagues.Several of those competitions have reported positive impacts on learning among participatingstudents [5, 10, 11, 18-22]. Some of the highlighted impacts include: • increased confidence in using technology [20], • increased understanding of the role of science and technology in solving real-world problems [19], • increased interests in pursuing degree/career in technical, math, or science related field [20], • increased understanding of the team work value [20], • increased self-confidence [20
conceptions about engineering as a career. Thestandardized loading for this latent, however, is within an acceptable range.The model generated by Mplus was found to be sufficiently close to well-fitting. The literaturerecommends a number of fit measures to report [12]; these are summarized in Table 5. The ChiSquare value measures overall fit. The value is 812 with 399 degrees of freedom andp-value < 0.001. These scores are acceptable (p-value <= 0.05). However, the Chi Square valuemay not accurately reflect the fit to the model when the sample size is large, the data is notnormal, or there are a large number of items. These issues result in the inflation of the ChiSquare value and the over-rejection of the null hypothesis. The WLSMV estimator
Paper ID #10212Using Engineering to Address the Common Core Standards: A Four WeekWorkshop (Curriculum Exchange)Dr. Patricia Carlson, Rose-Hulman Institute of Technology Dr. Patricia ”Pat” A. Carlson is a transplanted middle westerner, having spent her childhood in Norfolk, Va. She came to Rose-Hulman Institute of Technology early in her teaching career and has taught a variety of courses over the past three decades. Dr. Carlson has held a number of American Society for Engineering Education summer fellowships that have taken her to NASA-Goddard, NASA-Langley, the Army Research Laboratory in Aberdeen, Maryland, and
(particularly environmental science),technology (pre-engineering and computing) and mathematics, all tied in a holistic way withinthe overarching theme of water quality. The project goals are to: To develop a sensor technologies curriculum for the high school classroom. To use environmental sensors to teach technology, engineering, mathematics, science, Page 23.1107.2 and critical workforce skills. To encourage learners to look at a local problem and local data with a global perspective. To promote awareness of sensor network-related careers and opportunities among high school teachers, students and guidance
engineering in society, andstimulates students to pursue careers in engineering and research. Integrating research intosecondary engineering education serves to increase recruitment and retention and enables futureengineers to become societal leaders. One speaker recently addressed the inter-connections anddiversity of fluid mechanics as a field pertinent to all engineering disciplines. Students wereexposed to fluid mechanics research examples relating bridge and aircraft design to blood flowcharacterization in the heart. Upon completion of this type of “research transfer” presentationand demonstration, our objectives were for the students to be able to: • articulate and recognize the role and importance of engineering in society
% enteringengineering) on the ECAP program; many of our teachers are sharing their engineeringknowledge and implementing design-based engineering curricula that reinforces what thestudents learn during the summer (see the last two columns of Table 1).Table 1: Engineering Career Access Program (ECAP) statistics before and after onset of currentRET site. Pre- RET Post- RET 2001 2002 2003 2004 2005 2006 % ECAP-Grads Enrolling in College 100 98 100 98 100 100 % ECAP-Grads Enrolling in STEM Major 41 47 44 58 63 45 % ECAP-Grads Enrolling in Engr
environmental engineers but they areunaware of this career path.In an effort to recruit more students into environmental engineering, the multidisciplinary EVENprogram at the University of Colorado at Boulder participates in the High School HonorsInstitute (HSHI) sponsored by the College of Engineering. The HSHI is in the summer, with theparticipating students either rising seniors or juniors. About 250 students typically participate.Students are allowed to self-select two main topics of interest, and spend a full day each learning Page 13.453.2about those two majors. The students also select three other engineering majors and attend a 45-minute session
places a high priority on reaching out toits local community. Such outreach fosters service opportunities so P-12 students can discoverscience, engineering, and technology careers. Service is a fundamental aspect of being a Page 14.1079.2professional and thus fundamental to our students’ education.UDLAP’s Alimentos Divertidos is an inquiry-based science23 and engineering program for P-12students. We have developed, implemented and evaluated educational materials (simple andinexpensive experiments that utilize easy-to-obtain materials) and pedagogical practicesdesigned jointly with P-12 teachers16. An Internet page with most of the developed
engineering design project that addresses relevant, socialchallenges of interest to students worldwide. Collaborating with others around the world todevelop a solution to an engineering problem, students are introduced to systems-thinking, teamwork, effective communication and other 21st century workforce skills. This innovative projectaims to increase the number of students interested in pursuing engineering as a career and toincrease the pool of teachers familiar with engineering design and systems thinking. This paperpresents the findings from the first part of the pilot study; results of the fall 2008 implementationof the module Introduction to the Core Concepts of Systems Engineering.IntroductionThe practice of engineering is increasingly
found in algebra and trigonometry classes [5].The secondary conclusion is supported by numerous papers, such as “Freshman-LevelMathematics in Engineering: A Review of the Literature in Engineering Education” [1] that says,“if students had further exposure to mathematics, then their mathematical weaknesses could beeliminated.”If these conclusions are accurate, then it stands to reason that there is a need for a curriculum tobe created that covers, in depth, basic algebraic and advanced mathematical concepts in concertwith topics that engineering students and experts think should be emphasized at the high schoollevel for those pursuing a career in a STEM field. In addition, research confirms that offeringanother mathematics class for high school
andcompleted their ROVs in early March. The final competition was held in early March at a local indoor community pool.The event was meant to serve a variety of purposes: first to provide an opportunity forstudents to see how their ROV would perform in a real situation, second to further Page 26.97.3educate students about the academic and career opportunities that exist within STEM,and finally to provide a reward for the student’s hard work. Each competing group wasgiven a specific time to try and complete a set of underwater tasks. Students were givenpoints for completing tasks as well as a possible time bonus. Additionally competingteams were
, applicable, andengaging activities that are linked directly to current research at Duke University; discovercurrent research at Duke University by visiting research labs and engaging in real time datacollection and analysis; define and analyze engineering ethics; improve technical communicationskills; learn about college and career opportunities in engineering; and apply acquired contentknowledge in math and science to define, analyze, and solve a problem that will help society in acapstone project. Additionally, this experience is designed to provide students with mentorshipand exposure to novel engineering curriculum developed and delivered by current undergraduateand graduate students. This model focuses on a coordinated effort between Duke
over 30 students. The MCE/WISE programs arefree programs, offered by PSU Erie, designed for minority or female students from theErie area in the summer before their senior year in high school. This program offers Page 26.1670.2students the opportunity to explore their options in higher education and examinepossible career paths. Along with STEM related field trips, in-depth workshops, andexperiences, the students take a free 6-week college course.In our workshop, the high school students not only had a chance to build an automatedwheeled car and a grasping robotic arm, but also observed that changing controllerparameters in MATLAB/Simulink resulted in
discover about ‘real world’ applications related to the contentthey have learned. This part of the curriculum includes career information and video ofpracticing engineers highlighting their work.In addition to the curriculum development effort, professional development and in-servicetraining with the curriculum are being provided for teachers prior to module use in theclassroom. During the 2006-2007 academic year, several Maryland high schools covering abroad range of demographics will be testing the curriculum and providing data to the study. Inthis presentation, we will provide an overview of the two new curriculum modules and presentresults of student learning, interest and attitudes. Finally, we will discuss the results of therelated
CAREER (Young Investigator) Award in 1995 and has received significant research funding from the U.S. Army, other U.S. governmental organizations, the State of Texas, and Raytheon E-Systems Company. He is highly active in professional societies. He has been an Associate Editor of both the IEEE Transactions on Signal Processing and the IEEE Signal Processing Letters and is past Chair of the Neural Networks for Signal Processing Technical Committee and Secretary of the Signal Processing Education Technical Committee of the IEEE Signal Processing Society. He is regularly involved in organizing professional meetings, most notably as the Proceedings Editor of the 1999 International
Page 11.92.2Many studies have examined non-cognitive variables to better understand student academicachievement. These studies have several the following experiences in shaping the pre-collegestudent’s academic success at the university. The experiences are (a) cultural awareness, (b)personal values, (c) interpersonal skills, and (d) career objectives.1,9 These experiences areimportant issues to examine when working with pre-college students due to the students’different experiences within secondary education. Therefore, pre-college students’ adaptation toa college environment may vary depending on their encounter with higher education.Thus, it is critical that administrators in higher education and other stakeholder groups (i.e.faculty, staff
, “Introduction to Computing and Programming in Python: A Multimedia Approach,” Prentice Hall, 2nd edition, ISBN: 978-0-13-606023-9.[7] IEEE Computer Society and ACM, “Computer Engineering 2004: Curriculum Guidelines for Undergraduate Degree Programs in Computer Engineering,” December 2004. http://www.acm.org/education/education/curric_vols/CE-Final-Report.pdf.[8] A. Aravind, “Students recruitment and retention in computer science: panel discussion”, in proceedings of the 16th Western Canadian Conference on Computing Education (WCCCE’11), pp. 43-44, May 6-7, 2011, University of Northern British Columbia, Prince George, BC.[9] National Center for Education Statistics, Career and technical education in the United States: 1990 to 2005
Conceptual Framework for Engineering Design Experiences in High SchoolAbstractThe infusion of engineering design into high school settings can help develop students’ criticalthinking skills and expose them to engineering careers at an early age. However, since theadvent of engineering design in pre-college milieus, researchers, educators, and curriculumdevelopers alike have been brooding over ways to introduce this equivocal subject into the k-12realm. Due to its interdisciplinary nature engineering design has also struggled to find a home inclassroom settings moving between technology education, to science classrooms and eveninformal learning environments. These factors considered it is our belief that the science