- on projects. However, this newteaching tool is also well suited for use in other classrooms, such as introductory engineeringcourses. One issue within these courses is they lack an engaging biomedical engineering projectwhich is suitable for all the students. NeuroBytes are relatively easy to use and require little priorknowledge. This technology bridges the gap between technology and biology orneurophysiology in order to show students the basic principles of biomedical engineering. A totalof 15 students and two teachers in a dual credit engineering course, offered by the University ofArizona, participated in this evaluation of NeuroBytes. Teachers first completed a pre- labsurvey and then a post-lab survey to determine if there was a need
, 2013; National Science Board, 2012) and demonstrate a lack ofinterest in STEM fields (Institute of Medicine, National Academy of Science, & NationalAcademy of Engineering, 2007). This is particularly concerning given STEM-related careeropportunities will grow considerably over the next decade (Carnevale, Smith, & Stroh, 2010) andinterest in STEM fields insufficiently meets U.S. imminent workforce demands (NationalScience Board, 2015). The President’s Council of Advisors on Science and Technology(PCAST, 2012) project that in order to retain its historical preeminence in science andtechnology, the U.S. will need approximately one million more STEM professionals than it willproduce over the next decade. To accomplish this goal, a 34
is an Assistant Professor in the Department of Engineering Education at Utah State University. He holds dual B.S. degrees in Industrial Technology Education and Civil and Environmental Engineering. His M.S. and Ph.D. are in Civil Engineering. Wade has over 15 years of teaching experience primarily focused at the University level but also including 2+ years of teaching in high schools. Dr. Goodridge’s current research interests include spatial thinking, creativity, effective pedagogy/andragogy in engineering education and professional development for 9-12 grade science faculty designated to teach engineering. His research revolves around developing and validating curricular methods to improve en- gineering
STEM Enrichment Program for High School Students: Results and Lessons LearnedAbstractWhile science, technology, engineering and mathematics (STEM) are crucial fields when itcomes to driving innovation and competiveness in today’s economy, there is a lack of interest forhigh school students in the United States in pursuing such degrees. This paper describes a two-week summer enrichment program that focuses on improving student preparedness for college,while promoting STEM education through active learning experiences and activities. Theprogram, a partnership with industry, has a major goal of
Engineering Education, 2018The influence of early STEM career exploration as related to motivation and self-determination theoryDr. Araceli Martinez Ortiz, Dr. Hiroko Kawaguchi Warshauer, Dr. Laura Cano Amaya andMs. Sara TorresAbstractA science, technology, engineering, and mathematics (STEM) summer intervention program is thesetting for a career-exploration research study with over 30 adolescent students in a low-incomecommunity. Using motivation and self-determination theory as a framework, the impact of earlyexposure to engineering and mathematics career opportunities is examined. In the larger study weutilized mixed methods to analyze how changes in middle school students’ affective characteristicsmay be linked to their future career decision
EngineeringIntroduction With the publication of the Framework for K-12 Science Education (National ResearchCouncil, 2012) and the Next Generation Science Standards (NGSS), emphasis is now placed onthe integration of engineering principles and practices into K12 science education. Although only18 states and the District of Columbia have formally adopted the NGSS, other states, includingSouth Dakota, Montana, Pennsylvania, and West Virginia have adopted similar standards.Unlike the previous set of national science education standards (NRC, 1996), the Framework forK-12 Science Education (NRC, 2012) places engineering and technology alongside the naturalsciences for two critical reasons: to reflect the importance of understanding the human-builtworld and to
Paper ID #23374Learning Advanced Mathematics Through Engineering Design (Resource Ex-change)Mr. Euisuk Sung, Purdue University, West Lafayette Euisuk Sung is a Ph.D. candidate at Purdue University. He is majoring in Engineering and Technology Teacher Education. He has a computer science degree and experienced in working in a computer software company over three years. He served as an engineering and technology educator in middle and high schools for 9 years in South Korea. Currently he is working in an NSF granted , titled TRAILS. His research interests are design cognition, design process model, and all about STEM
careers, and are focused on those who are underrepresented in STEM and underserved. c American Society for Engineering Education, 2018Promoting the STEM Pipeline and Enhancing STEM Career AwarenessThrough Participation in Authentic Research Activities (RTP, Diversity) AbstractTo promote the STEM (Science, Technology, Engineering and Mathematics) pipeline andenhance the participation of students who have been historically underrepresented in STEMfields in the U.S, a team of faculty investigators with diverse expertise in STEM, education,public health and medicine have been working collaboratively on a National Institutes of Health(NIH)-funded STEM education project
Paper ID #21258Assessment of the Impact of Summer STEAM Programs on High School Par-ticipants’ Content Knowledge and Attitude Towards STEAM CareersMr. Marcelo Caplan, Columbia College Marcelo Caplan - Associate Professor, Department of Science and Mathematics, Columbia College Chicago. In addition to my teaching responsibilities, I am involved in the community engagement programs and activities of the department. I am the coordinator of three outreach programs 1) the NSF-ISE project ”Scientists for Tomorrow” which goal is to promote Science Technology Engineering and Mathematics (STEM) learning in community centers in the
examined 40 lesson activities from a website that provides teachers withover one thousand free activities. This website was chosen because it is NSF-funded, acollaborative effort from several well-respected universities, and a top hit when searching for“K-12 Engineering Activities” on Google. It is also one of the only sites that provides completeunits, as opposed to stand-alone activities, at no cost.A search was conducted within the website to limit the focus of this research, which includedlooking at complete units under “Science and Technology” that cover the Engineering DesignStandards for grades 3-5. All lesson activities were coded by two of the researchers, using acodebook that was developed with the “practices matrix” in the NGSS. The
inengineering by producing a legitimate artifact and producing knowledge.DiscussionDominant engineering paradigms often rely on having resources. As indicated by Wachs [48],engineers have been masters of technology driven mostly by economic motives and influencedby corporations and government. Rasquachismo, on the other hand, is a model that has beenappropriated by those who do not have resources and embrace ambiguity, ingenuity, andresourcefulness - rasquachismo is rooted in experience for survival and resistance. Nonetheless,rasquachismo also becomes a vehicle to the world of engineering. Similar to engineering,rasquachismo seeks to (1) generate potential solutions to a problem, (2) accomplish simple tasksthrough complex ingenuity, (3) generate
Paper ID #29312A Study of Secondary Teachers’ Perceptions of Engineers and Conceptionsof EngineeringEmel Cevik, Texas A&M UniversityDr. Michael Johnson, Texas A&M University Dr. Michael D. Johnson is a professor in the Department of Engineering Technology and Industrial Distribution at Texas A&M University. Prior to joining the faculty at Texas A&M, he was a senior product development engineer at the 3M Corporate Research Laboratory in St. Paul, Minnesota. He received his B.S. in mechanical engineering from Michigan State University and his S.M. and Ph.D. from the Massachusetts Institute of Technology. Dr
authors contributed equally to this workdawn.kilkenny@utoronto.caAbstractSenior high school students often struggle with recognizing the link between human health care andengineering, resulting in limited recruitment for post-secondary biomedical engineering (BME) study.To enhance student comprehension and recruitment in the field, BME graduate student instructors havedeveloped and launched Discovery, a collaborative high school outreach program that promotes andengages students in the application of science, technology, engineering, and math (STEM) concepts. Theprogram offers a unique, immersive semester-long practicum that complements classroom curriculumbut is delivered within university facilities. Further to this, BME graduate students have
Paper ID #32848A P-12 Engineering Learning Framework: Expectations and Resources To-wardAchieving Engineering Literacy for AllDr. Greg J. Strimel, Purdue University at West Lafayette (PPI) Greg J. Strimel, Ph.D., is an assistant professor of Technology Leadership and Innovation and coordinator of the Design and Innovation Minor at Purdue University. Dr. Strimel conducts research on design pedagogy, cognition, and assessment as well as the preparation of K-12 engineering teachers. American c Society for Engineering Education, 2021 A P-12 Engineering Learning
in 1982, and his MSME in 1985 and Ph.D. in 1989, both from Purdue University. He teaches mechanical engineering design and geometry modeling for design. Dr. Crawford’s research interests span topics in computer- aided mechanical design and design theory and methodology. Dr. Crawford is co-founder of the DTEACh program, a ”Design Technology” program for K-12, and is active on the faculty of the UTeachEngineering program that seeks to educate teachers of high school engineering.Dr. Stephanie Rivale, University of Texas at Austin Stephanie Rivale is a research faculty member at the Center for STEM Education at the University of Texas. She received her Ph.D. in STEM Education at the University of Texas. She received
National Leadership Advisory Board of the StriveTogether Network during its affiliation with the KnowledgeWorks Foundation (Cincinnati). He is currently a Senior Fel- low of the American Leadership Forum (Houston/Gulf Coast Chapter) and is serving on the Executive Committee of its Board of Trustees.Dr. Jean S Larson, Arizona State University Jean Larson, Ph.D., is the Educational Director for the NSF-funded Engineering Research Center for Bio- mediated and Bio-inspired Geotechnics (CBBG), and Assistant Research Professor in both the School of Sustainable Engineering and the Built Environment and the Division of Educational Leadership and Innovation at Arizona State University. She has a Ph.D. in Educational Technology
familiarity with engineeringconstruct is not well developed in the research literature and studies are limited to those using theinstrument developed by Yasar and colleagues. Yasar et al. [4] used a Likert scale instrument tomeasure K-12 teachers’ familiarity with engineering, engineering design, and technology (DET).Most teachers in the study had low familiarity with DET, which was attributed to lack ofknowledge, lack of training, lack of administrative support, and lack of time for learning aboutDET. Subsequent studies using the DET instrument reported similar findings [5], [6]. There is a lack of research literature devoted to the barriers of implementing engineeringat the K-5 level. However, the literature related to the barriers to
engineers. This paperwill discuss methodology and results of the study, impact on K-12 engineering identity, andfuture work in quantifying N-EAN initiatives.Introduction:The universal presence of engineering and technology is inescapable in today’s modern world.Our lives are increasingly defined by and dependent upon technology. Essential skills neededfor Americans in the 21 st century will include increased understanding of these technologies andthe ability to make informed decisions about its development and use[1]. One of the mosteffective ways to ensure greater awareness is to provide exposure to more engineering in K-12education. The key to educating students to thrive in this competitive global economy isintroducing them early to engineering
and STEM careers as well as the development of instruments and evaluation tools to assess these constructs.Dr. Euisuk Sung, Indiana University Euisuk Sung is a postdoctoral researcher at Indiana University. He earned a Ph.D. degree in Engineering and Technology Teacher Education at Purdue University. He has computer science degree and worked as a computer software developer for three years. then he served as an engineering and technology educator in high school for 9 years in South Korea. Currently he is working in NSF Funded project, titled TRAILS. His research interests are design cognition, maker education, computer science education, and all about STEM education.Dr. Adam V. Maltese, Indiana University
- sional development programs on student achievement and attitudes.Dr. Carrie Obenland, Rice University Dr. Obenland is the Assistant Director for Outreach and Research at the Rice Office of STEM Engage- ment. She as her PhD in Chemistry from Rice University, as well as her Masters. Her graduate work was focused on chemical education. She earned her BS in Chemical Engineering from the University of Texas at Austin. c American Society for Engineering Education, 2018 NanoEnvironmental Engineering for Teachers (Work in Progress)An increasing number of teachers are not properly trained or prepared to effectively teachscience, technology, engineering, and math (STEM) subjects [1]. Most teachers
Department of Anesthesiology & Pain Medicine and the Graduate Program in Neuroscience at the University of Washington. In addition to perform- ing basic neuroscience research, he works with other neuroscientists and classroom teachers to develop educational materials to help K-12 students learn about the brain. c American Society for Engineering Education, 2018 Neural Engineering for Secondary Science Classrooms (Resource Exchange) Visit http://www.csne-erc.org for free curriculum resources!Neural Engineering is a Contemporary, High Interest TopicMedia reports of cutting-edge technologies, such as brain-computer interfaces, deep brain stimulation, retinal
practices in technology-enhanced learning environments. Prior to beginning doctoral work, she taught secondary mathematics for four years as well as created and implemented an interdisciplinary, project-based mathematics, science, and principles-of-technology curriculum for fresh- men and sophomore high school students in Albemarle County, Virginia.Ms. Anne Marguerite McAlister, University of Virginia Anne McAlister is a PhD student in the Department of Curriculum, Instruction and Special Education in the Curry School of Education at the University of Virginia. She holds a BS in Chemical Engineering from The Ohio State University. Her research centers on engineering education, focusing on identity development in higher
implementation strategies of thenotebooks, we asked the following overarching research question: What are the variety of waysin which teachers implement structured engineering notebooks during an engineeringdesign-based STEM integration unit? To address our research question, we used a multiple casestudy approach and a cross case analysis based on videos of teacher implementation and theirstudents’ notebooks.Literature reviewIn science, technology, engineering, and mathematics (STEM), formative assessment is anintegral part of high-quality instruction. The Next Generation Science Standards (NGSS) expectteachers to provide multidimensional science instruction of disciplinary core ideas, science andengineering practices, and crosscutting concepts [10
Paper ID #34262Middle School Capstone Engineering Projects (Work in Progress)Dr. Kenneth Berry, Southern Methodist University Dr. Kenneth Berry is a Research Professor at the Caruth Institute for Engineering Education (CIEE) in the Lyle School of Engineering at Southern Methodist University (SMU). He has worked as an education specialist at NASA’s Jet Propulsion Laboratory until he received his doctorate in Educational Technology in 2001. He then taught at the Michael D. Eisner School of Education at California State University at Northridge (CSUN). In 2009, he moved to Texas to work at the Science and Engineering Education
design problems and evaluating students’ design arti- facts. Her outreach work focuses on creating resources for K-12 educators to support engineering edu- cation in the classroom. She is also the founder of STOMP (stompnetwork.org), LEGOengineering.com (legoengineering.com) and the Teacher Engineering Education Program (teep.tufts.edu).Michael Forte, Tufts UniversityMr. Russell Lincoln Shute, I am a Technology Education teacher, who teaches classes that introduce students to engineering concepts, at Silver Lake Regional High School, in Kingston, MA. I have a Bachelors from University of Rochester in Chemical Engineering and a Masters in STEM Education from Tufts University. c American Society
design, 4) increasedinterest in pursuing an engineering career, and 5) improved technological literacy [4]. With thesegoals in mind, the objective of this study was to examine how a newly developed instructionalmodel, known as Argument Driven Engineering (ADE), is related to changes in middle schoolstudents’ attitudes toward engineering and participation in engineering careers. This study ofengineering attitudes is important both for developing effective curriculum and pedagogy forengineering in science classrooms, and also for addressing nation-wide problems with diverserepresentation and participation in engineering degree programs and occupations.In 2012 the President’s Council of Advisors on Science and Technology issued a reportprojecting
). Productive communication in an afterschool engineering club with girls who are English Language Learners. Theory Into Practice, 56(4), 246-254.[8] Hester, K., & Cunningham, C. (2007, January). Engineering is elementary: An engineering and technology curriculum for children. In ASEE Annual Conference and Exposition, Conference Proceedings.[9] Cunningham, C. M. (2009). Engineering is elementary. The bridge, 30(3), 11-17.[10] Yoon, S. Y., Dyehouse, M., Lucietto, A. M., Diefes‐Dux, H. A., & Capobianco, B. M. (2014). The effects of integrated science, technology, and engineering education on elementary students' knowledge and identity development. School Science and Mathematics, 114(8), 380-391.[11] English, L
Engineering Teachers’ Literacy InstructionPeople enter and exit science, technology, engineering, and mathematics (STEM) pathwaysat different points in their educational trajectories (Cannady, Greenwald, & Harris, 2014;Maltese, Melki, & Wiebke, 2014), but middle school is an especially critical juncture forcapturing and maintaining youths’ interest in STEM fields. From fifth to eighth grade,adolescents’ interest in STEM often declines (Gonzales et al., 2008; Osborne, Simon, &Collins, 2003), and many develop a negative sense of self-efficacy regarding their potentialto succeed in future STEM courses (Chen & Usher, 2013). Though many people exit STEMpathways before they enter high school, this problem is especially pronounced
works with community members, partners, and teammates in the research and design of experiences and systems that support community goals. She is currently the Principal Investigator for Designing our tomorrow - Mobilizing the next generation of engineers. This NSF-funded project includes research on family engineering learning at exhibits, the development of an exhibit on biomimicry as a form of engineering, and professional development on engineering education for exhibit designers, developers, and facilitators. She is also leading a Moonshot project funded by the IF/THEN R Gender Equity Initiative to provide two videos focused on engineering and design for anyone in the field to use. In addition to her work
of Wisconsin - Eau Claire. American c Society for Engineering Education, 2021Improving Integrated STEM Education: The Design and Development of a K- 12 STEM Observation Protocol (STEM-OP) (RTP)IntroductionThe collective education of science, technology, engineering, and mathematics has beencommonly referred to as STEM education. For K-12 education in the United States, the use ofthe phrase “STEM education” has repeatedly been used in reference to a more integratedcurricular and pedagogical approach, wherein the STEM disciplines are interconnected with oneanother and contextualized by real-world problems [1] – [3]. This shift from teaching the STEMdisciplines in