The Museum of Science, Boston (MOS) and its primary collaborators, the Science Museum of Minnesota (St. Paul, MN) and the Exploratorium (San Francisco, CA), are continuing and expanding the Nanoscale Informal Science Education Network (NISE Net), which has been in operation since 2005. NISE Net has established a national infrastructure of over one-hundred hands-on science centers and universities within seven regional hubs with the goal of fostering public awareness, engagement and understanding of nanoscale science and engineering (NSE). As part of this undertaking, NISE Net partners have: - created a nation-wide set of annual events called NanoDays; - developed dozens of interactive exhibits, media-based products, programs, and public forums based on NSE; - generated new knowledge about the design for learning about NSE, its applications, and societal implications; - produced a network that involves informal educators and researchers; and - developed a Web site for professionals, www.nisenet.org, that includes several resources for educators and researchers, including a catalog of educational products. During the next five years (2010 - 2014), NISE Net will continue to develop new educational products, deepen the involvement of current partnerships in nanoscale informal science education, and expand the number of partners overall to 300 organizations. The advisory committee, content steering committee, regional hubs, and other work groups will continue to develop collaborative relationships between museums and university-based NSE research centers, including Materials Research Science and Engineering Research Centers (MRSECs) and Nanoscale Science and Engineering Centers (NSECs). A Diversity, Equity, and Access group will actively support, foster, and encourage the NISE Net\'s efforts to reach diverse audiences with regard to geography, dis/ability, gender, race/ethnicity, language, and income. Four research studies will be conducted: Partnership and Network, Institutional Change, Learning Progressions, and Evidence-Based Decision Making.
ENERGY-NET (Energy, Environment and Society Learning Network) brings together the Carnegie Museum of Natural History (CMNH) with the learning science and geoscience research strengths at the University of Pittsburgh to create rich opportunities for participatory learning and public education in the arena of energy, the environment, and society using an Earth systems science framework. ENERGY-NET builds upon a long-established teen docent program at CMNH and forms Geoscience Squads comprised of underserved teens. Together, the ENERGY-NET team, including museum staff, experts in informal learning sciences, and geoscientists spanning career stage (undergraduates, graduate students, faculty) provides inquiry-based learning experiences guided by Earth systems science principles. Together, the team works with Geoscience Squads to design "Exploration Stations" for use with CMNH visitors that employ an Earth systems science framework to explore the intersecting lenses of energy, the environment, and society. The goals of ENERGY-NET are to: 1) Develop a rich set of experiential learning activities to enhance public knowledge about the complex dynamics between Energy, Environment, and Society for demonstration at CMNH; 2) Expand diversity in the geosciences workforce by mentoring underrepresented teens, providing authentic learning experiences in earth systems science and life skills, and providing networking opportunities with geoscientists; and 3) Institutionalize ENERGY-NET collaborations among geosciences expert, learning researchers, and museum staff to yield long-term improvements in public geoscience education and geoscience workforce recruiting.
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TEAM MEMBERS:
Carnegie-Mellon UniversityMary Ann SteinerEmily ElliotKevin CrowleyUniversity of Pittsburgh and Carnegie Museum of Natural History
Making Connections, a three-year design-based research study conducted by the Science Museum of Minnesota in partnership with Twin Cities' communities, is developing and studying new ways to engage a broader audience in meaningful Maker experiences. This study draws and builds on existing theoretical frameworks to examine how community engagement techniques can be used to co-design and implement culturally-relevant marketing, activities, and events focused on Making that attract families from underrepresented audiences and ultimately engage them in meaningful informal STEM learning. The research is being done in three phases: Sharing and Listening - co-design with targeted communities; Making Activities Design and Implementation; Final Analysis, Synthesis and Dissemination. The project is also exploring new approaches in museums' cross-institutional practices that can strengthen the quality of their community-engagement. In recent years, Making - a do-it-yourself, grassroots approach to designing and constructing real things through creativity, problem-solving, and tool use - has received increasing attention as a fruitful vehicle for introducing young people to the excitement of science and engineering and to career skills in these fields. Maker Faires attract hundreds and thousands of people to engage in Making activities every year, and the popularity of these events, as well as the number of museums and libraries that are beginning to provide opportunities for the public to regularly engage in these types of activities, are skyrocketing. However, Maker programs tend to draw audiences that are predominantly white, middle class, male, well educated, and strongly interested in science, despite the fact that the practices of Making are as common in more diverse communities. Making Connections has the potential to transform how children begin to cultivate a lifelong interest in engineering at a young age, which may ultimately encourage more young people of color to pursue engineering careers in the future.
The Seeing Scientifically project will research a new way of supporting museum visitor experiences so they can have authentic scientific observation of live microscopic specimens. By adapting existing computational imaging techniques from current biological research, the project aims to encourage and support visitors in observing scientifically, that is, in asking productive questions, interpreting image-rich information, and making inferences from visual evidence that increasingly characterizes current biological research. The scaffolding (e.g., visual cues or information supporting learning) will consist of a system of virtual guides and prompts that are responsive to what visitors see. The scaffolding prompts will be overlaid on a real time, high-density image of a live sample that the visitor is investigating with a research grade microscope. Project research will contribute early knowledge on ways to scaffold informal learners in the practice of authentic scientific observation with the complex, dynamic visual evidence that scientists themselves see using the equipment and techniques they use. Project research and resources will be widely disseminated to learning science researchers, informal science practitioners, and other interested audiences through publications, conference presentations and sharing of resources via the NSF-supported informalscience.org website and other relevant websites. As part of its overall strategy to enhance learning in informal environments, the Advancing Informal STEM Learning (AISL) program funds innovative resources for use in a variety of settings. This includes providing multiple pathways for broadening access to and engagement in STEM learning experiences, advancing innovative research on and assessment of STEM learning in informal environments, and developing understandings of deeper learning by participants. The project will prototype an innovative microscope exhibit that scaffolds visitors in scientific observation of live specimens and their biological processes. The overarching hypothesis is that scientific observation of real-time visual phenomena can deeply engage learners with the content, tools and practices of modern science, which increasingly rely on image-based data. Through three rounds of iterative prototype development and evaluation, the project will generate early findings for the following related questions: (1) what are promising ways of scaffolding observation of live specimens at an unmediated exhibit; (2) How can computational imaging techniques be integrated into a microscope exhibit to engage and scaffold learners to ask productive questions, interpret what they see, and make evidence-based inferences from complex, dynamic images. Data will be collected and analyzed by coding think-aloud interviews with visitors concerning their interest in and description of the biological phenomenon observed; coding of think aloud transcripts of visitor questions types and answers, relevant features noted, inferences and scaffold use; and statistical comparison of holding time, questions asked, answers, inferences, and scaffold use. Project findings will seed more rigorous research on the combination of scaffolding and computational imaging techniques effective for supporting scientific observation in image-rich areas of science.
As part of its overall strategy to enhance learning in informal environments, the Advancing Informal STEM Learning (AISL) program funds innovative resources for use in a variety of settings. This education project is a time sensitive opportunity related to the March 9, 2016 Total Solar Eclipse occurring in a remote part of the world located in Waleia in the Federated States of Micronesia, a U.S. affiliated Pacific Island nation. The path of totality is only 100 miles wide and passes through only a few Pacific Island nations ending in Hawaii. This project uses this unique phenomenon to educate a large US and international audience about solar science using multi-platforms with integrated video, social media, and public programs. Project deliverables include the production of a broadcast of the eclipse live from Waleia in the Federated States of Micronesia on March 9, 2016 making it accessible to hundreds of countries and millions of people around the world via satellite and live streaming on the Internet. Additional deliverables include on-site educational programs at science centers and planetariums as well as media resources for long-term use. These resources will enhance the interest and preparedness for additional public engagement when the 2017 eclipse occurs in the U.S. Making new research understandable and accessible to the public is an important activity of the U.S. research enterprise. NSF is making a substantial investment in solar physics research by funding the construction of the world's largest solar telescope, the Daniel K. Inouye Solar Telescope which is slated to begin operations in late 2019 and operated by the National Solar Observatory. This new facility will revolutionize researchers' capability to study the Sun and its magnetic fields. This education project leverages that investment with a major public engagement opportunity that has the potential for reaching millions of students, teachers, and the public both in the U.S. and worldwide through the Internet.
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TEAM MEMBERS:
ExploratoriumRobert SemperNicole MinorRobyn Higdon
Libraries serve vital roles in communities not only for access to print media but also family programming and access to the internet. Because of their widespread local presence in communities and the diverse communities served, libraries are well-positioned to address inequalities in access to technology, family programming, and spaces for collaboration. Science centers, universities, and community centers represent resources that can partner with libraries to create science and technology-related content for delivery to diverse communities. Research has firmly established the link between parent engagement and a broad range of student academic outcomes, including higher student attendance, achievement and graduation rates. A growing body of research in out-of-school science learning is focusing on the rich and varied ways in which families learn science outside of school, including habits of mind, motivation, and identities as scientists. Pilot work showed that backpacks have the potential for youth and parents to take on new roles relative to STEM work, with parents or older siblings taking on roles of lab partners, translators, and even teachers. The Robotics and E-Textiles project will support increased capacity within libraries and community centers to hold robotics workshops for families in their own communities. Libraries and community centers will serve as vehicles through which families engage with robotics and e-textiles, resulting in wider access to Next Generation Science Standards' engineering practices to more people. This Innovations in Development project is funded by the Advancing Informal STEM Learning (AISL) program which seeks to advance new approaches to, and evidence-based understanding of, the design and development of STEM learning in informal environments. Librarians and community engagement leaders will participate in professional experiences to develop science and technology content and facilitation skills. University researchers in collaboration with project partners will use a design-based research methodology to iteratively design the professional development and backpack programs and to investigate learning processes and outcomes. The Cultural Learning Pathways theoretical model will guide the study of how engagement with robotics/e-textiles experiences can lead to changes in practice, identity, and deeper participation in communities of practice on the part of librarians, youth, and families. Although collaborations between public libraries and informal science providers are becoming increasingly common, this project will document the process of developing such collaborations and draw insights that may be applied to other contexts. By bringing together traditional and non-traditional community organizations to develop and facilitate STEM learning experiences, this project has the potential for resulting in a new model for a decentralized system of informal STEM education and broadening participation in STEM. Over the life of the project, the number of partner libraries will expand from one to four, and it is anticipated to reach more than 550 families. It is being conducted through a partnership between the University of Washington, the Pacific Science Center, the Seattle Public Libraries, and Red Eagle Soaring, a Native American community youth program.
Nationally, there is tremendous interest in enhancing participation in science, technology, engineering, and mathematics (STEM). Providing rich opportunities for engagement in science and engineering practices may be key to developing a much larger cadre of young people who grow up interested in and pursue future STEM education and career options. One particularly powerful way to engage children in such exploration and playful experimentation may be through learning experiences that call for tinkering with real objects and tools to make and remake things. Tinkering is an important target for research and educational practice for at least two reasons: (1) tinkering experiences are frequently social, involving children interacting with educators and family members who can support STEM-relevant tinkering in various ways and (2) tinkering is more open-ended than many other kinds of building experiences (e.g., puzzles, making a model airplane), because it is the participants' own unique questions and objectives that guide the activity. Thus, tinkering provides a highly accessible point of entry into early STEM learning for children and families who do not all share the same backgrounds, circumstances, interests, and expertise. This Research-in-Service to Practice project is funded by the Advancing Informal STEM Learning (AISL) program which seeks to advance new approaches to, and evidence-based understanding of, the design and development of STEM learning in informal environments. The project will take place in the Tinkering Lab exhibit at Chicago Children's Museum. The research will investigate how reflective interactions between parents and children (ages 6-8) during tinkering activities ultimately impact child engagement in STEM. Design-based research (DBR) is well-suited to the iterative and contextually-rich process of tinkering. Using a DBR approach, researchers and museum facilitators will be trained to prompt variations of simple reflection strategies at different time points between family members as a way to strengthen children's engagement with, and memory of these shared tinkering events. Through progressive refinement, each cycle of testing will lead to new hypotheses that can be tested in the subsequent round of observations. The operationalization of study constructs and their measurement will come organically from families' activities in the Tinkering Lab and will be developed in consultation with members of the advisory board. Data collection strategies will include observation and interviews; a series of coding schemes will be used to make sense of the data. The research will result in theoretical and practical understanding of ways to enhance STEM engagement and learning by young children and their families through tinkering. A diverse group of at least 350 children and their families will be involved. The project will provide much needed empirical results on how to promote STEM engagement and learning in informal science education settings. It will yield useful information and resources for informal science learning practitioners, parents, and other educators who look to advance STEM learning opportunities for children. This research is being conducted through a partnership between researchers at Loyola University of Chicago and Northwestern University and museum staff and educators at the Chicago Children's Museum.
As part of its overall strategy to enhance learning in informal environments, the Advancing Informal STEM Learning (AISL) program funds innovative resources for use in a variety of settings. This project will develop and research an integrated children's media and early childhood educator professional development strategy to prepare preschoolers with social-emotional skills that provide a foundation for later math learning success. The social-emotional skills include persistence, risk-taking, regulating anxieties, and collaborating to solve problems. Media components include Peg+Cat television episodes, videos, games and apps distributed through PBS broadcast and online. The integrated professional development model is designed to impact these educators' understanding of math and develop their skills for fostering in children a positive math mindset. Additional resources include a new Peg+Cat summer day camp at the Carnegie Science Center in Pittsburgh. The project partners include a media company, The Fred Rogers Company; researchers at the University of Pittsburgh and St. Vincent College; and the evaluator, Rockman et al. This project is unique in its focus on integrating social-emotional skills with early math learning and educator skill development. It will fill an important niche in the research literature and has the potential to impact media practice which is undergoing significant change as new digital tools and technologies become available for learning. Both standardized and researcher-developed measures will be used to assess learning outcomes, including early childhood educators' attitudes and quality of instruction, as well as children's interest and engagement in math. The research design includes iterative data collection to inform the development and refinement of the professional learning for teachers. The mixed methods approach will include classroom observations, interviews and focus groups with educators, and parent questionnaires. Key questions include: does exposure to Peg+Cat positively relate to children's use of social-emotional skills during math learning activities? Does educators' exposure to the professional development training improve their attitudes and abilities to infuse math instruction with social-emotional skills? Does having an educator who received Peg+Cat training impact children's engagement and interest in math?
Approximately 8.4 million children in the United States participate annually in out-of-school time (OST) programs with a science component. These programs have been shown to have a wide range of impacts on scientific literacy, school achievement, and career interest. Because such programs take place outside of home and school, they offer participants learning flexibility and a sense of agency that otherwise do not exist in traditional science learning contexts. However, current research on OST is largely limited to evaluation-level data that has not been synthesized, making it difficult to draw definite conclusions. As seen in other fields, a larger evidence base is needed for the OST field to grow or else non-evidence-based policies will be imposed upon the field by outside forces. The project team will conduct an experimental, longitudinal research project to address these issues. This Research-in-Service to Practice project is funded by the Advancing Informal STEM Learning (AISL) program which seeks to advance new approaches to, and evidence-based understanding of, the design and development of STEM learning in informal environments. The study uses a sophisticated design with a wide variety of measures to follow three cohorts of adolescent youth (~200) over a 4-year period to address the primary research question: How does participation of adolescent youth from traditionally underrepresented groups in a well-established, out-of-school time science program affect their career choices and attitudes towards science as they mature into early adulthood? While each measure is rooted in established literature and methodology, putting it all together using a comprehensive, complementary approach has not yet been done in the OST field. The research studies will be looking at a number of variables in order to measure program impact including: demographic and experiential background of program participants, STEM attitudes, career interest/choices, scientific engagement, and participation. Data will be collected via survey, observation, interviews, and document review. The program practitioners will contribute diary and field note data to the study. This project will provide STEM education practitioners with the evidence-based information they need to develop better programs for underrepresented minority (URM) youth so program and policy decisions are not made in a vacuum. Operationally, findings will have an impact on OST and URM science education researchers by generating new research methodology and techniques. Tactically, it will benefit greater URM communities by investigating how OST programs can support science learning and scientific interest among their adolescent youth. Strategically, the study impacts the nation by providing evidence about the validity of OST programs as a critical partner to address the issue of URM involvement in the STEM workforce. Also, the corpus of raw data will be made public, providing a large and varied data set for others to explore. This research is being conducted by the Museum of Science and Industry, Chicago, and the Curry School of Education at the University of Virginia.
As part of its overall strategy to enhance learning in informal environments, the Advancing Informal STEM Learning (AISL) program funds innovative resources for use in a variety of settings. This project is a time sensitive educational response to the 7.8 magnitude earthquake that struck Nepal on April 25, 2015 and was followed by major aftershocks. This project builds on the intense worldwide interest in that disaster by developing and distributing media resources for the public and educators explaining the scientific research into tectonic and fluvial processes of this highly vulnerable region encompassing the Himalayas of Nepal, the Ganges-Brahmaputra River Delta of Bangladesh and India, and the mountains of northeastern India. Project deliverables include PBS NewsHour broadcasts and online stories, short videos for classroom use, 3D/2D videos for public screenings in museums, Earth Magazine blogs and articles, and DVDs. Making new research understandable and accessible to the public is an important activity of the U.S. research enterprise. NSF is making a substantial investment in earth sciences research to increase knowledge of the conditions and processes that periodically cause earthquakes, landslides, and flooding. This education project leverages those investments and the public interest in the recent Nepal earthquake with a major public engagement opportunity that has the potential for reaching millions of students, teachers, and the public both in the U.S. and in other vulnerable regions.
As part of its overall strategy to enhance learning in informal environments, the Advancing Informal STEM Learning (AISL) program funds innovative resources for use in a variety of settings. This research project leverages ongoing longitudinal research to investigate whether, and if so how, youth from ages 10 to 15 in a diverse, under-resourced urban community become interested and engaged in STEM. The project addresses a global issue; fewer youth choose to major in scientific fields or take science coursework at high school or university levels. These declining numbers result in fewer STEM professionals and fewer scientifically literate citizens who are able to function successfully in an increasingly scientific and technological society. These declines are observed for youth as a whole, but are most pronounced for girls and particular non-white ethnic minorities. Data collected from youth in this community of study, including non-white ethnic minorities, mirrors this decline. NSF funding will support a five-year systematic and systemic process in which project researchers work collaboratively with existing informal and formal educational partners (e.g., museums, libraries, afterschool providers, schools) to develop sets of customized, connected, and coordinated learning interventions, in and out of school, for youth with different backgrounds, needs, and interests, all with the goal of averting or dampening this decline of STEM interest and participation during early adolescence. In addition to new research and community STEM networks, this project will result in a Community Toolkit that includes research instruments and documentation of network-building strategies for use by other researchers and practitioners nationally and internationally. This mixed methods exploratory study has two distinct but interrelated populations - youth and educators from across informal and formal institutions. To develop a clearer understanding of the factors that influence youths' STEM interest development over time, particularly among three youth STEM Interest Profiles identified in a secondary analysis (1-Dislike Math, 2-Like all STEM, 3-Dislike all STEM), the design combines surveys with in-depth interviews and observations. To study educators and institutions, researchers will combine interviews, focus groups, and observations to better understand factors that influence community-wide, data-driven approaches to supporting youth interest development. Research will be conducted in three phases with the goal of community-level change in youth STEM interest and participation. In Phase 1 (Years 1 & 2) four educational partners will develop interventions for a 6th and 7th grade youth cohort that will be iteratively refined through a design-based approach. Educational partners and researchers will meet to review and discuss interest and participation data and use these data to select content, as well as plan activities and strategies within their programs (using a simplified form of conjecture mapping). By Phase 2 (Years 3 & 4) four additional partners will be included, more closely modeling the complex system of the community. With support from researchers support and existing partners, new educational partners will similarly review and discuss data, using these to select content, as well as plan activities consistent with program goals and strategies. Additional interventions will be implemented by the new partners and further assessed and refined with a new 6th and 7th grade cohort, along with the existing interventions of the first four partners. In Phase 3 (Year 5) data will be collected on pre-post community-level changes in STEM interest and participation and the perceived effectiveness of this approach for youth. These data will inform future studies.
Disparities in engineering participation and achievement by women and individuals from traditionally underserved racial and ethnic groups have been persistent. Approaches outside the context of university and school reform, including approaches to supporting interest development in early childhood, have not been fully considered by educators and policymakers. This AISL Pathways project will focus on engineering, which has emerged as a critical topic in the STEM education field and a prominent aspect of educational standards and policies. Building on a strong empirical and theoretical base, it will lay the foundation for future research efforts to advance the field's limited understanding of early childhood engineering-related interest development, especially through parent-child interactions; create research tools for studying engineering-related interest in young children; and identify effective strategies for supporting long-term engineering interest pathways. "Head Start on Engineering" is funded by the Advancing Informal STEM Learning (AISL) program, which seeks to advance new approaches to, and evidence-based understanding of, the design and development of STEM learning in informal environments. This includes providing multiple pathways for broadening access to and engagement in STEM learning experiences, advancing innovative research on and assessment of STEM learning in informal environments, and developing understandings of deeper learning by participants. Through an asset-based approach and authentic engagement with families and community organizations, Head Start on Engineering will pilot research and program activities that are sensitive to the constraints of low-income families and build on the resources and funds of knowledge within these communities. It will test and refine an innovative, theoretical model of early childhood interest development. The overall design of the pilot study will be mixed-method and short-term longitudinal, with data collected before, during, and after program implementation from participating families. Quantitative measures will allow for consistent comparisons across groups and within families, while qualitative data will help explore complex factors and processes hypothesized in the theoretical framework and related to program implementation. This work will allow the team time to address unanswered questions and issues around how to feasibly operationalize key aspects of the revised theoretical model in preparation for more extensive, longitudinal and experimental investigations as part of the next phase of the project. Understanding and honoring parents' beliefs, knowledge, and experiences is central to this project. In developing and implementing both the programs and research activities, the team will adopt culturally responsive and asset-based perspectives. The Pathways project is a collaboration between the Institute for Learning Innovation (ILI), a nonprofit organization dedicated to the advancement of lifelong, free-choice learning for all communities through research, practice, and policy initiatives; Mt. Hood Community College Head Start program; the Oregon Museum of Science and Industry (OMSI), a nationally renowned science museum; and the Center for STEM Education at the University of Notre Dame. The project involves families with four-year-old children who attend the Head Start program. The collaboration between educators, community organizations, and researchers and the integrated approach to research and program development will ensure that study findings translate to practical and effective education strategies and that future research efforts are well-grounded in the realities of practitioners and learners.