andadditional open-ended analysis of student interview data was completed.Initial research on students in Fellows’ classes demonstrated that the Engineering Fellowstudents made statistically significant gains in their understandings of engineering whenmeasured annually pre to post. These students were more likely to portray an engineer asa designer, to better understand engineering processes, the diversity of fields representedby the term engineering and the work typically done within engineering fields.To capture the long-term influence of interaction with a Fellow, similar follow-up data Page 11.846.2were collected from a subset of project students and a
Paper ID #8624The EPICS Program: Innovative Education for Authentic LearningMrs. Jean M. Trusedell, Purdue University Jean Trusedell is a Nationally Board Certified Teacher with extensive experience working with K-12 Ed- ucators and students. Her current project is working with the EPICS (Engineering Projects in Community Service) at Purdue University to create curriculum that can be used with students throughout the coun- try to integrate best classroom practices with engineering principles. Previously, she was the Science and Technology Coach for MSD of Decatur Township in Indianapolis, IN. Ms. Trusedell is pursuing a
EPICS.Mrs. Pamela Dexter, Purdue University, West Lafayette Pamela Dexter graduated from Purdue University with a bachelor’s of arts degree in education and worked as the Gifted & Talented Program Coordinator and teacher for a local school corporation. Dexter was also the Director of Marketing and Resource Development for Lafayette Neighborhood Housing Services, Inc., before joining Purdue University’s EPICS (Engineering Projects in Community Service) program. Dexter has been the EPICS High School Program Coordinator since inception of the program in 2006. Dexter is dedicated to the national dissemination of engineering service-learning design education in schools across the U.S. and abroad. These efforts blend the
Paper ID #6376Introducing 6-12 Grade Teachers and Students to Computational ThinkingDr. A. Dean Fontenot, Texas Tech University Dr. Fontenot is the Sr. Director of the Texas Tech T-STEM which provides professional development for K-12 teachers as part of the Texas STEM (T-STEM) initiative. The Texas Tech T-STEM Center focuses on project-based learning with the integration of the engineering design process. The Center provides professional development training for T-STEM Academies, T-STEM Early College High Schools, and all Texas school districts, public and private. She collaborates with Whitacre College of Engineering
country where they learned about nursing practices, community assessment, medicalinstrumentation and engineering design principles, with much of the learning facilitated throughsmall group, community-based activities. Students concluded the trip back at FGCU, formallypresenting their work to local community members, from the campus and the greater Ft. Myersand Naples area; students were also interviewed by these community members one-on-one todetermine successes and areas for improvement in the program. While the paper will summarizeall components of the high school program, the focus of the paper is on the design topicsintroduced in Guatemala, including activities used to teach and learn engineering design, the in-country design project
AC 2008-2413: SERVICE LEARNING: COMMUNITY AND CULTURAL VALUESTHAT ENGAGE UNDER REPRESENTED GROUPS INTO THE STEM PIPELINELeslie Wilkins, Maui Economic Development BoardIsla Young, Maui Economic Development Board, Inc. ISLA YOUNG: Ms. Young joined the MEDB Women in Technology Project in December 2003. She serves as a Program Manager working with students, educators, industry leaders, and the community. She serves as the Hawaii statewide coordinator for Project EAST profiled in this paper. She holds a baccalaureate degree in Business and Information Systems form the University of Phoenix. Email: isla@medb.org
informalengineering; learning theory and engineering; lesson planning, assessment and engineering;engineering practices in the K-12 classroom; the influence of engineering and technology onsociety; participant microteaching and curriculum unit development; A Framework for K-12Science Education; and final project discussion.Preliminary FindingsA case study of classroom to practice allows for a preliminary understanding of the coursestrengths and weaknesses. Data was gathered from multiple interventions including reflectionsfrom the summer course, classroom observations while the teachers were teaching in the K-12classroom, teacher interviews, and student interviews. Teacher reflections from the summercourse were studied to identify key understandings and
applications of the design process, curriculum development, and fulfilling the needs of an integrated, multi-disciplinary first-year engineering educational environment through the use of collaborative learn- ing, problem-based and project-based learning, classroom interaction, and multiple representations of concepts.Mr. Alexander Danial Manasseh, Prometheus Education, Inc Alexander Manasseh is a developer of Science, Technology, Engineering and Mathematics (STEM) les- son plans, presiding over the not-for-profit corporation Prometheus Education, Inc. Alexander develops STEM lesson plans, performs STEM pedagogy research, and tailors STEM technology to the K-16 class- room. Prometheus Education, Inc. facilitates efficacy
independent research, and is also paired with a student participant from our ResearchExperiences for Undergraduates (REU) program for the summer. Teachers are encouraged todevelop ways to include their new-found knowledge and perspective of engineering into theirregularly-taught courses.A week of Infinity Project™ training has been included in the past two programs. The Infinitytechnology package consists of a desktop or laptop computer linked to a Texas InstrumentsDigital Signal Processing board coupled together with a graphical software designenvironment to facilitate student learning. An example of an Infinity module is thedemonstration of cell phone technology: teachers explain basic trigonometry principles, which,through simple extensions of
teacher at Josiah High School. He has been teaching technology courses. He attended the CAPSULE professional development for teachers in summer 2010. He implemented a capstone project in his technology class by getting his students to design a low cost and portable USB power charger to charge cell phones.Ms. Kristina Buenafe, Josiah Quincy High School Kristina Buenafe is teacher at Josiah High School. She has been teaching mathematics courses. She at- tended the CAPSULE professional development for teachers in summer 2010. She implemented capstone projects in her geometry class by getting his students to design a three-legged chair.Ms. Jessica Chin, Northeastern University Jessica Chin is a Ph.D. candidate. She has
toconduct engineering design projects in middle and high school settings. Teachers, researchers orcurriculum developers can use tested and refined projects in the WISEngineering Library, or useauthoring tools to create their own projects. Anyone can take pre-existing projects and customizethem to suit a particular context or need. WISEngineering supports engineering design processeswith technologies such as a shared virtual “Design Wall” where students critique and commenton each other’s’ designs, or digital design journals and portfolios, where students save and sharetheir designs and design process. WISEngineering builds upon the open-source Web-based Inquiry Science Environment(WISE) from the University of California at Berkeley (http
, andMathematics) education in the United States, and our city is not an exception. Many efforts onmany fronts are being made nationally and locally to meet this challenge. However, oneresource that is largely untapped is the vast pool of practicing STEM professionals. Althoughdiverse efforts to facilitate collaboration between STEM and education communities have madepositive impacts, only a small percentage of STEM professionals (hereafter STEMs), studentsand teachers have participated in these projects and few projects have enjoyed sustainability.Additionally, little research has substantiated the effects of the collaborations.WithfundingfromtheNationalDefenseEducationProgramviatheDepartmentoftheNavy,this project implemented a testable model for
) coupled with several engineering design projects/competitions (bottlerockets, solar cars, bridge building, catapults, hovercrafts, and robotics) help students see therelevance of their summer STEM courses. The percentage of students who participate in theprogram, attend college, and graduate in STEM fields has been tracked throughout the programshistory. The success of the program in attracting above average numbers of young men andwomen to pursue engineering and other STEM fields is presented and related to the programmethods. Several key factors influencing the success of the program, which has grown to serveover 350 students per year locally, are identified presented as a model that can be duplicated inan effort to increase the number of
2006-518: QCC TECHASCEND: NSF-SPONSORED AFTER-SCHOOL PROGRAMAIMED AT POTENTIAL TECHNICIANSDon Engelberg, Queensborough Community College Principal Investigator Dr. Don Engelberg holds a B. S. degree from the Massachusetts Institute of Technology and M. A. and Ph. D. degrees in physics from Columbia University. In addition to coordinating the entire TechASCEND project, he served as instructor for the fiber optics unit. Dr. Engelberg has served as P. I. for two previous NSF grants related to fiber optic telecommunications. In addition to his publications related to physics education, he has published on nuclear and particle physics and the history of physics. He has also directed grants under the
andtechnology to students.The collaborators began an investigative phase of the project to identify and evaluate materialsand curricula that were currently available and used by similar schools. In addition to disciplinespecific resources, the materials reviewed included:Project Lead the Way 4Tools of Discovery 5Teach Engineering 6Engineering Your Future 7Imagine 101 8Scientific and Technical Visualization 9The Infinity Project 10The review team was pleased to discover the significant diversity in resources to facilitate thenew program. The collaborators refined their review to identify the most appropriate materialgiven the following considerations: 1. Could be taught without significant, additional classroom materials 2. Would not require
, scientists, andeducators serving fourteen middle-school school districts in southern New York. The institute’saim is to increase students’ understanding of science concepts and skills related to environmentalsustainability and broaden students’ perceptions of engineering, science, and math careersthrough a range of exciting activities that students do not experience in school. The resulting 10-day learning experience integrates (1) Biology/Life Science, (2) Chemistry/Physical Science, and(3) Math/Engineering by framing instruction and activities around climate change andsustainability issues. Students participated in advanced coursework in the form of interactivecontent sessions, fieldtrips and guest speakers, and experiments/team projects
) related collegedegree programs have experienced lower U.S. student enrollment1 and unwillingness of K-12students for science and mathematics courses2. The enrollment in undergraduate engineering andengineering technology disciplines was down by 16% during the 1986-2006 period3 and thenumber of awarded bachelor’s degrees in engineering fields fluctuated between 60,000-80,000during the comparable period4 in spite of more than 10% projected job growth in engineeringdisciplines in the near future5. Due to their tendency to pursue social sciences and to attendprograms at two-year institutions, underrepresented groups such as Hispanics, women orAfrican-Americans have generated even a larger deficit in enrolling STEM disciplines6. Thecurrent trend in
parallel programming or object-oriented design. It is also well known that engineering students are more likely to pursue andcomplete CS degrees if they perform well in their freshman programming courses. Consequently,the importance of stimulating long-term CS interest at the K-12 level cannot be understated.K-12 CS programs that dwell on the high-level benefits of a CS career can sometimesoverwhelm new students. Typically, these programs will introduce students to recent researchprojects or high-end products in the market. While these methods inspire interest in CS, they canalso be discouraging when students realize their introductory work (e.g. basic programming) isso far away from the advanced projects that were introduced.Alternatively
oil resources – for the benefits of short-term reduction of carbon dioxide emissions from power generation and transportation, nationalenergy independence, and national job growth – and minimizing damage to water and airresources and risks to human health.Sustainability Research Network development is part of a new program developed by theNational Science Foundation to build networks of multidisciplinary teams to address currentshortages of reliable information regarding fundamental challenges in sustainability. Byproviding a science-based framework for studying the environmental, economic, and socialtrade-offs associated with natural gas resource development and environmental protection, theSRN project aims to provide the basis for evidence
: 1. To identify the phases of the engineering design process. 2. To design an engineering project and construct a physical model of the project. 3. To prepare a technical report for a design project and make an effective oral presentation that summarizes the project. 4. To recognize the importance of working in a design team. 5. To recognize the importance of the NSPE Code of Ethics and the responsibility of Professional Engineers.The textbook is Engineering by Design4 that is based on the five phases of the engineeringdesign process: 1. Needs Assessment 2. Problem Formulation 3. Abstraction and Synthesis 4. Analysis 5. ImplementationDescription of Hybrid CourseThe hybrid model consisted of distance
Paper ID #9885You’re Hired! Changing Students’ Attitudes Towards EngineeringKristin M Brevik, The University of North Dakota Kristin Brevik is a graduate student in the Department of Chemical Engineering at the University of North Dakota. She received her B.S. from Minnesota State University Moorhead in Physics. Her research focus is in STEM education and project design.Dr. Bradley Bowen, North Dakota State University Bradley Bowen is an assistant professor at North Dakota State University. He has a duel appointment with the Teacher Education Department and the Department of Construction Management and Engineering. He
of students pursuing engineering related majors, the University of North Carolina atCharlotte has adopted a comprehensive and integrated approach involving three separate National ScienceFoundation (NSF) funded projects. Together, the projects are designed to raise the engineering awarenessof middle and high school students, teachers and guidance counselors.The central project is the Enhancing Diversity in Engineering Technology (EDIET) project which focuseson the establishment and support of North Carolina Junior Engineering and Technology (NCJETS) clubsat local area high schools. In order to receive project support, a high school club must have a populationof at least 50% non-traditional engineering student types. The clubs compete in
engineeringcurriculum. The six-week program consisted of four stages, introduction to Roboticsengineering, hardware design, robotics programming, and project development. The applicationof this courseware proved to be an effective way for students to realize their academiccapabilities and engage themselves in group projects. The course was held at Vaughn College ofAeronautics and Technology in Queens, New York. Based on the planned course layout the courseware has been developed as follows: (1)Introduction to Robotics engineering, such as engineering design steps and industrialapplications. The robot design implemented by college students who won the World Roboticscompetition has been utilized as an example in the class lecture; (2) Hardware design with
AC 2011-316: GUIDANCE COUNSELORS’ BELIEFS AND EXPECTATIONSABOUT HIGH SCHOOL STUDENTS’ PRECOLLEGE ENGINEERING PREPA-RATIONMitchell J. Nathan, University of Wisconsin-Madison Mitchell J. Nathan is Professor of Educational Psychology, Curriculum & Instruction, and Psychology, in the School of Education at the University of Wisconsin-Madison, and past chair of the Learning Sci- ences program. He is a research fellow at the Wisconsin Center for Education Research and at the Center on Education and Work. He uses experimental and discourse-based research methods to understand the cognitive, social and embodied nature of STEM learning and instruction. He is currently co-principal in- vestigator of the AWAKEN project in
AC 2007-2464: CURRICULUM DEVELOPMENT AND INTEGRATION FOR K-6ENGINEERING EDUCATIONMegan Holmes, Worcester Polytechnic Institute MEGAN HOLMES is a graduate student in Biomedical Engineering at Worcester Polytechnic Institute. She received her Bachelors of Science degree in Biomedical Engineering in May 2005 from Worcester Polytechnic Institute and began working on the PIEE project in June 2005.Jill Rulfs, Worcester Polytechnic Institute JILL RULFS is Associate Professor of Biology & Biotechnology at WPI. In addition to being a former public school teacher herself, she has remained active in university/public school partnerships. She has served as a consultant for the Massachusetts
Analysis, Measurement, & Science Authors and Contact: Wendy Niesl S. Selcen Guzey Tamara J. Moore University of Minnesota Purdue University Purdue University nies0023@umn.edu sguzey@purdue.edu tamara@purdue.edu Project Website: http://engineeringteams.org Project Description The Engineering to Transform the Education of Analysis, Measurement, & Science (EngrTEAMS) project is an engineering, design-based approach to teacher professional development that has 50 teachers per year designing curricular units for science topic areas related to the Next Generation
) programs at the university level. Teachersfrom regional high schools and university faculty from STEM disciplines work together throughmultiple collaborative projects. Collaborators (including the authors) come from a broad range ofdisciplines: engineering, education, mathematics, and the liberal arts, as well as K12 teachers andadministrators.The collaborative partnerships developed between area high schools and Louisiana TechUniversity ensure that the curriculum and education programs are challenging but appropriatelytargeted for high school students. These projects reach schools which have differing economicand social demographics. Thus the partnerships provide for the development of a robust programthat can be implemented in schools regardless
engineering through a two-week residential summer camp. The Summer Engineering Instituteprovides participants an insight into the engineering profession and the engineering educationalsystem through a combination of lectures, hands-on laboratory activities, field trips, workshops,panels, and projects. Among the strategies employed in developing the program are emphasizingall the major fields of engineering and the various paths to an engineering career, including therole of community colleges; targeting first generation students and underrepresented minorities;collaborating with high school faculty and staff through a nomination process to identify andselect potential students; collaboration among community college and university faculty indeveloping
knowledge and conceptual knowledge can be challenging. Ideally,teachers would be able to trace thinking through the design rationale as the design proceeds, notjust retrospectively or from static project artifacts. They would also be able to use technology tosupplement teaching documentation and communication. The use of technology and culturaltechnology methods of communication has potential to impact assessment in K-12 engineeringeducation. Seventy-five percent of teens have cell phones2 and over 50% of teenagers 17 andyounger have access to the Internet outside of school and send email or text messages at leastonce a week. Twitter and other text-messaging tools help to motivate and encourage students todo more writing and encourage interactions
AC 2010-603: INCORPORATING THE IMPORTANCE OF INTERDISCIPLINARYUNDERSTANDING IN K-12 ENGINEERING OUTREACH PROGRAMS USING ABIOMIMETIC DEVICEStanley Hunley, Michigan State UniversityJoshua Whitman, Michigan State UniversitySeungik Baek, Michigan State UniversityXiaobo Tan, Michigan State UniversityDrew Kim, Michigan State University Page 15.715.1© American Society for Engineering Education, 2010 Incorporating the Importance of Interdisciplinary Understanding in K-12 Engineering Outreach Programs using a Biomimetic DeviceAbstractThe project presented in this paper is designed to motivate interest in the engineeringfield for K-12 students, especially those who have previously