Paper ID #36784The Role of K-12 Teachers as Agents for Change (RTP)Mrs. Christina Anlynette Alston, Rice University Christina works as the Associate Director for Equitable Research, Evaluation, and Grant Development at the Rice Office of STEM Engagement (R-STEM) to broaden the aim of Rice University K-12 programs to promote asset-based equitable settings for underrepresented and marginalized populations within STEM and to educate Houston-area secondary science teachers in the use of inquiry- and project-based ways for teaching science and engineering ideas. She holds a Bachelor of Science in Biology from Texas A&M
Paper ID #9133LiftOff to Best Practices in K-12 Engineering Curriculum DesignMs. Margaret Baguio, University of Texas at Austin Margaret Baguio is the Sr. Education and Outreach Coordinator for NASA’s Texas Space Grant Con- sortium in Austin, Texas. She has worked for over thirty years in youth development and education. During that time, Margaret has worked in public schools, for the Texas Cooperative Extension Service 4-H & Youth Development Program, managed a USDA Science and Literacy project for at-risk youth, and promoted space education to students, teachers and the general public through the Texas Space Grant
in Engineering Education, pp. 1-26.[7] K. Williams, I. Igel, R. Poveda, V. Kapila, and M. Iskander (2012). “Enriching K-12 Mathematics and Science Education Using LEGOs.” Advances in Engineering Education, pp. 1-28.[8] P. R. Hernandez, R. Bodin, J. W. Elliott, B. Ibrahim, K. E. Rambo-Hernandez, T. W. Chen, and M. A. de Miranda (2014). “Connecting the STEM Dots: Measuring the Effect of an Integrated Engineering Design Integration.” International Journal of Technology and Design Education (24), pp. 107-120.[9] E. McGrath, S. Lowes, P. Lin, and J. Sayres (2009). “Analysis of Middle- and High-School Students’ Learning of Science, Math, and Engineering Concepts Through a LEGO Underwater Robotics Design
Paper ID #32789A Comprehensive Professional Development Program for K-8 Teachers toTeach Computer ScienceProf. Leen-Kiat Soh, University of Nebraska - Lincoln Dr. Leen-Kiat Soh is a Professor at the Computer Science and Engineering Department at the Univer- sity of Nebraska. His research interests are in multiagent systems, computer-aided education, computer science education, and intelligent image analysis. He has applied his research to smart grids, computer- supported collaborative learning, survey informatics, geospatial intelligence, and intelligent systems. He is a member of IEEE, ACM, and AAAI.Dr. Gwen Nugent
% of schoolchildren in this country are of minority populations, thepattern of under representation in pursuing engineering B.S. degrees persists for AfricanAmericans, Hispanics, and Native Americans3. The picture is even grimmer when consideringdegrees beyond the B.S. level with only 5.9% of Ph.D.s being awarded to underrepresentedminorities1, 2.We felt that bioengineering would be an avenue through which we could increase the interestand participation of females and minority students in engineering. The very nature ofbioengineering research, as well as the inherently interdisciplinary outlook of bioengineers,provides a unique opportunity for a meaningful integration of research activities with hands-onand vivid educational experiences for
provided Worcester Polytechnic Institute (WPI) with the resources necessary toassist Worcester Public Schools (WPS) in bringing technology and engineering into theirelementary classrooms. Through the Partnerships Implementing Engineering Education (PIEE)program WPI faculty, graduate fellows, and undergraduate students worked closely with WPSteachers to develop a curriculum in grades K-6 that would address the Science andTechnology/Engineering Frameworks and ensure that each year built upon concepts taught in theprevious year. Graduate fellows and undergraduate students then helped the teachers bring thatcurriculum into the classrooms where they both assisted with teaching and also evaluated theirlesson plans and activities. WPS teachers provided
Paper ID #27296Engagement in Practice: Some Do’s and Don’ts in Partnership Developmentfor a Successful Humanitarian Engineering Project.Shiyin Lim, Santa Clara UniversitySydney Thompson, Santa Clara University I am a senior mechanical engineering student at Santa Clara University, with a passion for implementing social justice through engineering.Dr. Tonya Lynn Nilsson P.E., Santa Clara University Tonya Nilsson is a Senior Lecturer in Civil Engineering at Santa Clara University (SCU), where she regularly facilitates pedagogical training for other faculty. Prior to joining SCU, Tonya was an Associate Professor at CSU
AC 2011-2506: GIZMO FESTIVAL: K-8 OUTREACH AS A DESIGN/BUILDFOR ENGINEERING STUDENTSMargot A Vigeant, Bucknell University Margot is an associate professor of chemical engineering and associate dean of engineering at Bucknell University.Lori Smolleck, Bucknell University Page 22.746.1 c American Society for Engineering Education, 2011 Gizmo Festival: K-8 Outreach as a Design/ Build for Engineering StudentsAbstractThe Gizmo Project is completed by first-year engineering students as the final exercise intheir introductory course: ENGR 100 – Exploring Engineering. The project also servesas a
of the following keywords: robotics (or robots), education, and K-12. The threedatabases yielded 229, 14, and 73 studies, respectively, giving a total of 316. Of the initial 316,we were able to eliminate 161 based on a preliminary read through. After scrutinizing theremaining 155 in more detail, we further refined our subset of included articles to a final total of119. Summaries for these 119 were compiled based on seven features (experimental vs. non-experimental, formal vs. informal, learning data, aspects of programming and what platform,sample properties, goals/purpose, and results/findings). Once the summaries were completed, we2identified commonalities in their research methodologies, results, and subsequent findings. Eacharticle was
K-12 Students1. IntroductionRecently there have been a rising popularity in the use of robotics as a vehicle to expose K-12students to the STEM disciplines. A common practice is to have the students build remotecontrol robotic vehicles for competitions such as the various First USA Robotics Competitions1.However, the robotics profession is not just focused on remote controlled mobile robots butrather involves stationary industrial arms running autonomously doing repetitive tasks. Ourapproach is to go beyond having the students simply build the robot and control it using a remotecontrol to teaching them more advanced engineering concepts more closely related to theprofession. We still aim to introduce STEM, and engineering in specific, to K
engineering education will leave students with an incomplete view of engineering (Moore, Tank, Glancy, & Kersten, 2015; Carr, Bennett, & Strobel, 2012). Science education researchers have argued that it is important for students to understand of the nature of science because it expands student understanding beyond scientific inquiry, the primary activity of science (Bartos, Lederman, 2014). In a similar approach, K-12 students should also understand the nature of engineering, not just engineering design (the primary activity of engineering). A better understanding of the nature of engineering would provide a foundation for students to better understand engineering. Literature Although research into the nature of engineering for K-12
Paper ID #16763A Hands-On Approach to Teaching K-12 Students About Microfluidic De-vices (Work in Progress)Prof. Adam T. Melvin, Louisiana State University Adam Melvin obtained a BS in Chemical Engineering and a BA in Chemistry from the University of Arizona, a MS in Chemical Engineering (with a minor in Biotechnology) and a Ph.D. in Chemical En- gineering from North Carolina State University under the direction of Jason Haugh. He was an NIH postdoctoral fellow at the University of North Carolina at Chapel Hill in the Departments of Chemistry and Biomedical Engineering under the direction of Nancy Allbritton. In August of
2006-2228: USING SERVICE-LEARNING TO INTEGRATE K-12 OUTREACHINTO A FIRST-YEAR ENGINEERING PROGRAMMichael Thompson, Purdue University Michael Thompson is a Ph.D. student in Chemical Education in the School of Science at Purdue University. He received his B.S. from St Joseph’s College and his M.S. in Biochemistry from Purdue University.William Oakes, Purdue University WILLIAM C. OAKES is an Associate Professor in the Department of Engineering Education at Purdue University and the Co-Director of the EPICS Program. He is a co-recipient of the 2005 National Academy of Engineering’s Bernard M. Gordon Prize and the 2004 NSPE Engineering Education Excellence Award He is a past-chair of the
materials robust enough for children, developing activities to fit a particularly interesting theme, and dealing with personnel issues that go beyond simple miscommunications. In each case, the Director makes a call to resolve the issue. For one particularly difficult personnel issue, The Director facilitated a meeting between all parties, and one person was let go. Assessment The students who have participated in the summer camps and after school program have improved their school performance, but have also expanded their ideas about the kinds of careers open to them. The first students to have come through the Rocky Mount camps start at the NC State College of Engineering next fall. Individual
teachers as instructional designers in TPD can lead to improvements inengineering subject-matter knowledge.B. AttitudePre-college engineering literature frequently cites the need to familiarize K-12 teachers withengineering education and improve their confidence in using associated curriculum and teachingpractices3 13. According to this study, active participation in designing engineering curricularesults in significant improvements in teachers’ instructional self-efficacy. In particular, teachers’reported an overall improvement in ECD self-efficacy at both mid- and post-program stages.Positive changes in teachers’ ECD self-efficacy as a result of participating in the FoundationPhase suggests that familiarizing with engineering through content
(Epicenter), funded by the National Science Foundation andmanaged by Stanford University and VentureWell.2 The goal of Pathways is to make high-quality innovation and entrepreneurship offerings available and accessible to undergraduateengineering students, through two strategies: faculty development and institutional change.Teams of faculty and administrators from 50 institutions participate in the program in threecohorts (chosen in a competitive process in three successive years).Participating schools are four-year US institutions with engineering programs, but beyond thatdo not have any specific profile: they include both public and private schools; range from fewerthan 100 undergraduate engineering students to more than 9,0003; are in urban
Education, 2021 Beyond the Social License to Operate: Training Socially Responsible Engineers to Contend with Corporate Frameworks for Community EngagementAbstractThe “social license to operate” (SLO) has emerged as a key industry framework forconceptualizing the need to responsibly engage communities. The social license loosely refers topublic acceptance, but the term is usually invoked without clear definition [1]. Advocates for theSLO define it as “the level of tolerance, acceptance, or approval of an organization’s activities bythe stakeholders with the greatest concern about the activity” [2]. From its original use in thepulp and paper and mining industries in the 1990s, the term has since
2000 Computer Training Project at UWM. She holds a BA Cum Laude (1996) in Mass Communication and Journalism, MS in Urban Studies (1998), MLIS in Information Science (1998), and Ph.D. in Urban Education (2006) with a Specialization in Educational & Media Technology from UWM. She has a Graduate Certification in Non-Profit Management (2004) from the Helen Bader Institute for Non-Profit Management. Page 14.277.1© American Society for Engineering Education, 2009 ASEE Topic: Undergraduate Retention and Development Beyond Math Enrichment: Applied Practice
, depending on the voltage differences, to a reed relay (W107DIP-5, Mangecraft, IL) to operate the exhaust fan. The exhaust fan operates at a rated voltage and current that is beyond the output capabilities of the microprocessor, the relay allowed the voltage produced from the photovoltaic cell to go directly through the fan. A full diagram of this circuit is shown
Paper ID #38301”Better Living through Chemistry?” DuPont & TeflonDr. Marilyn A. Dyrud, Oregon Institute of Technology Marilyn Dyrud retired in 2017 as a professor emerita in the Communication Department at Oregon In- stitute of Technology, where she taught classes in writing, speech, rhetoric, and ethics for four decades. She received her BA in 1972 from the University of the Pacific in Stockton, CA, and her graduate degrees from Purdue University: MA in 1974 and PhD in 1980. She became involved in engineering education by joining ASEE in 1983 and is currently active in two divisions: Engineering Ethics and Engineering
December 2011 at Portland State University, with research at the confluence of machine learning, information theory, philosophy of science, music information retrieval, and mathematical music theory. His current research areas are engineering education, music information retrieval (DSP and machine learning), music perception, and mathematical music theory. Prior to tenure track (1994 through 2010), Vurkac¸ taught in the following academic settings. 1. The Music Department at Whitman College (Sound Synthesis), 2. The Electrical and Computer Engi- neering at Portland State University (all courses in first- and second-year digital and analog circuits) as an adjunct, 3. Co-teaching as a ”grad mentor” in the University
c Society for Engineering Education, 2021WIP: Understanding Context: Propagation and Effectiveness of the Concept Warehouse in Mechanical Engineering at Five Diverse Institutions and Beyond – Results from Year 2It has been well-established that active learning strategies increase student retention, improveengagement and student achievement, and reduce the performance gap of underrepresentedstudents [1], [2]. Concept-based learning is a particular form of active learning which “is the useof activity-based pedagogies whose primary objectives are to make students value deepconceptual understanding (instead of only factual knowledge) and then to facilitate theirdevelopment of that understanding” [3], and its
considerable turmoil with the Covid pandemic in spring 2020 – no different thanfor other schools throughout the world. The spring design courses were completed in a veryreactionary manner, making the best of challenging circumstances. The fall 2020 and spring2021 classes are being delivered with more time to plan for possible disruptions and also to dealwith greatly augmented university requirements related to health and safety.The Professional Plan for the WKU design sequence includes: Engineering Design (executing astructured, team approach to solving problems through meaningful projects); ProfessionalCommunication (in written, spoken and graphical forms); Professional Tools (CAD/CAM/FEAas well as a variety of calculation and communication tools
Paper ID #30004If engineers solve problems, why are there still so many problems tosolve? : Getting beyond technical ”solutions” in the classroomDr. Cynthia Helen Carlson PE, Merrimack College Dr. Carlson worked as a water resources engineer for 10 years prior to earning her doctorate, contributing to improved water management in communities within the United States, Middle East, and Singapore. She has been a licensed Professional Engineer (PE) since 2002. Dr. Carlson’s research interests are broadly characterized as ’how civil engineering impacts public health’, and include storm water man- agement, modeling environment
communities that engineersseek to serve.Sofia learned from Argentinian STSers to critically question projects focused on thedevelopment of technology for social inclusion as these often fail or create more inequalitybecause they tend to reduce poverty and social exclusion to a technical problem and becometop-down, pro-poor intervention strategies and research efforts aimed to find ‘appropriatetechnologies’ [28]. Through her research, she is committed to go beyond technologicaldevelopment by developing other alternatives of socio-technical interventions thatacknowledge the intricate relationships between materials, processes, and actors related to thee-waste management in Buenos Aires.Authentic dialogue. This element of praxis calls for “allow[ing
AC 2011-2430: MOVING BEYOND THE DOUBLE-BIND: WIE AND MEPPROGRAMS AND SERVING THE NEEDS OF WOMEN OF COLOR INENGINEERINGLisa M Frehill, National Action Council for Minorities in Engineering Lisa Frehill is the Director of Research, Evaluation and Policy at the National Action Council for Mi- norities in Engineering (NACME), a Senior Program Officer with the Committee on Women in Science, Engineering, and Medicine at the National Research Council, and a senior analyst at Energetics Technol- ogy Center. Since earning her doctoral degree Dr. Frehill has developed expertise in the science and engineering workforce with a focus on how gender and ethnicity impact access to careers in these fields. While she was an
. Page 15.461.1© American Society for Engineering Education, 2010 Encouraging Conceptual Change in P-12 Mexican Teachers Through the Use of Engineering DesignAbstractMexico 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 engineering.In this study, 65 teachers participated in a workshop based on the engineering teaching kit (ETK)called Save the Penguins1, 2 in order to learn about how to enhance science and math learningthrough the use of engineering design teaching. The Save
AC 2011-1061: ENCOURAGING ART AND SCIENCE CROSS-DEPARTMENTALCOLLABORATION THROUGH AN INTERDISCIPLINARY PROGRAMMahmoud K Quweider, University of Texas, Brownsville Dr. M K Quweider is an Associate Professor at University of Texas at Brownsville. He received his Ph.D. in Engineering Science and an M.S. in Applied Mathematics, M.S. in Engineering Science, and M.S. in Biomedical Engineering all from the University of Toledo, Ohio. After graduation, he worked at several places including Pixera, a digital image processing company in Cupertino, CA, and 3COM, a networking and communication company in Schaumberg, IL. He joined the UTB in 2000. His areas of interest include Imaging, Visualization and Animation, Web Design and
visualization due to their familiarity with computers and video gaming, thehypothesis is that either “DTVR” or “CVR” would supplement and enhance student learningabove and beyond levels achieved through conventional physical experiment only mode.Assessment Experimental Design The Intact Group method was used to assess the impact of different modules on studentlearning. [32] Among three learning settings, “physical experiment only” mode was set as a“control” group, and the remaining two “DTVR” and “CAVE” modules were set as“experimental” treatment groups. The “control” group consisted of students who did not haveaccess to either “DTVR” or “CAVE” modules. Learning of the subject matter in the “control”group prior to the physical experiment was
AC 2012-3705: INTERDISCIPLINARY TEAMS THROUGH TWO COM-PANION COURSES ON INFRASTRUCTUREDr. Matthew W. Roberts P.E., University of Wisconsin, Platteville Matthew Roberts is an Associate Professor in the Department of Civil and Environmental Engineering. He earned his B.S. in civil engineering from Brigham Young University in 1993, then spent four years in the U.S. Air Force as a civil engineering officer. He received his Ph.D. from Texas A&M University in 2002 and has been teaching structural engineering topics at the University of Wisconsin, Platteville since then.Dr. Michael K. Thompson, University of Wisconsin, Platteville M. Keith Thompson is an Associate Professor at UW, Platteville. In addition to