This Partnerships for Innovation: Building Innovation Capacity (PFI:BIC) project from the University of New Hampshire focuses on a "living bridge", which exemplifies the future of smart, sustainable, user-centered transportation infrastructure. Bridges deliver such a fundamental service to society that they are often taken for granted. Typically, bridges only stir the public's interest when they must unexpectedly be replaced at great cost, or, worse, fail. The Living Bridge project will create a self-diagnosing, self-reporting "smart bridge" powered by a local renewable energy source, tidal energy, by transforming the landmark Memorial Bridge--a vertical lift bridge over the tidal Piscataqua River, with pedestrian access connecting Portsmouth, New Hampshire to Kittery, Maine--into a living laboratory for researchers, engineers, scientists, and the community at large. The Living Bridge will engage innovators in sensor and renewable energy technology by creating an incubator platform on a working bridge, from which researchers can field test and evaluate the impact and effectiveness of emerging technologies. The Living Bridge will also serve as a community platform to educate citizens about innovations occurring at the site and in the region, and about how incorporating renewable energy into bridge design can lead to a sustainable transportation infrastructure with impact far beyond the region. Sustainable, smart bridges are key elements in developing a successful infrastructure system. To advance the state of smart service systems and clean energy conversion, this project team will design and deploy a structural and environmental monitoring system that provides information for bridge condition assessment, traffic management, and environmental stewardship; advances renewable energy technology application; and excites the general public about bridge innovations. This PFI:BIC project is enabled through partnerships between academic researchers with expertise in structural, mechanical and ocean engineering, sensing technology and social science; small businesses with expertise in instrumentation, data acquisition, tidal energy conversion; and state agencies with bridge design expertise. The Living Bridge technical areas are structural health monitoring, tidal energy conversion with fluid-structure interaction measurements, estuarine environmental monitoring, and outreach communication. Sensors will be used to calibrate a three-dimensional analytical structural finite element model of the bridge. The predicted structural response from this model will assess the measured structural response of the bridge as acceptable or not. Instruments installed on the turbine deployment platform will measure the spatio-temporal structure of the turbulent inflow and modified wake flow downstream of the turbine. Resulting data will include turbine performance and loads for use in fluid-structure interaction models. Deployed environmental sensors will measure estuarine water quality; wildlife deterrent sensors will deter fish from the turbine. Hydrophones and video cameras will be used before and during turbine deployment to monitor environmental changes due to turbine presence. Outreach efforts will make bridge data, history, and information about new systems accessible and understandable to the public and K-12 educators, facilitated by an information kiosk installed at the bridge. Public awareness will be assessed with survey methods used in the N.H. Granite State Poll. The lead institution is the University of New Hampshire (UNH) with its departments of Civil Engineering, Mechanical Engineering, and Sociology, and the Center for Ocean Engineering. Primary industrial partners are a large business, MacArtney Underwater Technology Group, Inc. (Houston, TX) and two small businesses Lite Enterprises, Inc. (Nashua, NH) and Eccosolutions, LLC (New Paltz, NY.) Broader context partners are New Hampshire Department of Transportation, NH Fish & Game Department, NH Port Authority, NH Coastal Program, City of Portsmouth (NH), Sustainable Portsmouth (nonprofit), Maine Department of Transportation; U.S. Coast Guard, Archer/Western (Canton, MA, large business), Parsons-Brinkerhoff (Manchester, NH, large business), UNH Tech Camp, UNH Infrastructure and Climate Network, UNH Leitzel Center for Mathematics, Science and Engineering Education, and Massachusetts Institute of Technology's Changing Places (a joint Architecture and Media Laboratory Consortium, in Cambridge, MA).
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TEAM MEMBERS:
Erin BellTat FuMartin WosnikKenneth BaldwinLawrence Hamilton
The aim of this project is to create conversations in science museums among scientists, engineers, and public audiences about an emerging research field, synthetic biology. Synthetic biology applies science and engineering to create new biological systems, and re-design existing biological systems, for useful purposes. This is an important new area of research and development that raises societal questions about potential benefits, costs, and risks. Conversations between researchers and public audiences will focus not only on what synthetic biology is and how research in the field is carried out, but also on the potential products, outcomes, and implications for society of this work. Researchers and publics will explore personal and societal values and priorities as well as desired research outcomes so that both groups can learn from each other. Public participants will benefit from knowing about this field of research, and researchers will benefit from hearing public perspectives directly from the public participants. This project will be led by the Museum of Science with partners at the American Association for the Advancement of Science, the Synthetic Biology Engineering Research Center, the Science Museum of Minnesota, the Ithaca Sciencenter, and several other universities and science museums. It 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. This project is aimed at pushing beyond traditional modes of communicating with public audiences rooted in "public understanding of science" modalities into the mechanisms and perspectives associated with "public engagement with science" (PES). The project will support informal educational institutions as facilitators of such PES activities through which mutual learning takes place among research experts and various publics. Formative evaluation will support the development of evaluation tools that practitioners can use themselves to measure impacts of public engagement activities on both scientist and public participants. Summative evaluation will measure the impacts of the project on informal science education practitioners and researchers participating in the development of the project. In the first year of the project, two kinds of engagement activities will be tested at eight pilot sites across the U.S. The first kind will be the focus of "showcase" events, in which researchers demonstrate and talk with museum visitors about the basics of synthetic biology and their research work. The second kind will be the focus of "forum" events in which the multi-directional conversations focus on societal implications and participants' priorities for maximizing the benefits of this new field while minimizing the risks. The work of the first year will inform development of a kit of public engagement materials that will support widespread public engagement with synthetic biology in the second year at up to 200 sites across the U.S. Successful practices and infrastructure developed by the Nanoscale Informal Science Education Network to support NanoDays events will be use for this broad dissemination of public engagement in synthetic biology in year 2. When the project is complete a set of tools and guides will be provided online for developing, implementing, and evaluating engagement events that bring scientists and publics together, specifically about synthetic biology, but adaptable to other emerging research topics. The informal science education field will have a better understanding of how to get scientists, engineers, and publics to engage together in discussions about the societal implications of emerging technologies, and how to evaluate the quality of that engagement for both the researchers and the publics involved. The project will also provide a sense of informed public views on societal issues related to synthetic biology that emerge through a variety of public engagement activities that take place in science museums.
The Exploratorium, in collaboration with the Boys and Girls Club Columbia Park (BGC) in the Mission District of San Francisco, is implementing a two-year exploratory project designed to support informal education in science, technology, engineering, and mathematics (STEM) within underserved Latino communities. Building off of and expanding on non-STEM-related efforts in a few major U.S. cities and Europe, the Exploratorium, BGC, and residents of the District will engage in a STEM exhibit and program co-development process that will physically convert metered parking spaces in front of the Club into transformative public places called "parklets." The BGC parklet will feature interactive, bilingual science and technology exhibits, programs and events targeting audiences including youth ages 8 - 17 and intergenerational families and groups primarily in the Mission District and users of the BGC. Parklet exhibits and programs will focus on STEM content related to "Observing the Urban Environment," with a focus on community sustainability. The project explores one approach to working with and engaging the public in their everyday environment with relevant STEM learning experiences. The development and evaluation processes are being positioned as a model for possible expansion throughout the city and to other cities.
Earth Partnership: Indigenous Arts and Sciences (EP) will develop and refine a model for integrating Indigenous and informal and formal K-20 educators in ecological restoration, project-based learning and professional development. EP will involve participants in Native habitat restoration on community spaces, school grounds and nearby natural areas as a context for intergenerational STEM learning across age, ecosystem, discipline, learning style, culture and place. EP integrates Native knowledge and core values including relationship, reciprocity, respect and responsibility with Western STEM concepts and processes. The project will integrate the expertise of university social, physical, life and learning scientists and community and tribal practitioners to design, develop and test informal STEM learning incorporating ecological restoration, citizen science and cultural diversity. EP grows out of a teacher professional development model funded by NSF and is a network that now includes participating individuals and organizations from many states. This network will enhance dissemination and provide a foundation for a larger project growing out of the results of this project. EP will build capacity of Native and non-Native informal educators and citizens to work together to generate engagement among young people and adults with ecological STEM learning and stewardship. The approach will integrate culturally authentic resources, inquiry and citizen science process skills (e.g., data collection, analysis, ecological restoration, water stewardship) in multiple learning settings. Stronger multicultural, intergenerational and community partnerships will be supported to restore aquatic and terrestrial habitats through community-based stewardship projects and Service Learning. Through EP, Native youth will be encouraged to explore STEM careers that will meet future workforce needs for managing tribal resources and become knowledgeable citizens able to use critical thinking and analysis of STEM-related issues in their communities. The project will use a developmental evaluation approach to assess project planning processes and outcomes of educational programs.
The Cyberlearning and Future Learning Technologies Program funds efforts that will help in envisioning the next generation of learning technologies and advancing what we know about how people learn in technology-rich environments. Development and Implementation (DIP) Projects build on proof-of-concept work that showed the possibilities of the proposed new type of learning technology, and project teams build and refine a minimally-viable example of their proposed innovation that allows them to understand how such technology should be designed and used in the future and answer questions about how people learn with technology. Although for years researchers have believed technology could afford anytime-anywhere learning, we still don't understand how learners behave differently across contexts, such as home, school, and in the community, and how to get youth to identify as learners across those contexts. This proposal aims to use mobile devices and strategically placed shared kiosks to 'scientize' youth in two low-income communities. Through strategic partnerships with community organizations, educators, and families, the innovation is to get primary and middle-school students engaging in scientific inquiry in the context of their neighborhoods. Research will help determine how the technology can best be deployed, but also answer important questions about how communities can provide support to help kids think like scientists and identify with science. This project will design and implement ubiquitous technology tools that include mobile social media and tangible, community displays (collectively called ScienceKit) that are deeply embedded into two urban neighborhoods, and demonstrate how such ubiquitous technologies and related cyberlearning strategies are vital to improve information flow and coordination across a neighborhood ecosystem, in order to create environments where children can connect their science learning across contexts and time (e.g. scientizing). A program called ScienceEverywhere comprised of partnerships between tightly connected neighborhood organizations with mentors, teachers, parents, and researchers will help learners develop scientifically literate practices both in and out of school, and will demonstrate students' learning to their communities. Research will consist of mixed methods studies of use of the tools, including iterative design-based research, ethnography, and the use of participant observers from the community; these will be triangulated with usage logs of the technologies and content analysis of microblogs by the learners on their identities and interests. Discourse analysis of interviews with focal learners will orient the qualitative work on identity development, and analysis using activity theory will inform the influences of the social practices and sociotechnical systems on learner trajectories. Formative evaluation will help shed light on if and how the sociotechnical system promotes STEM literacy and STEM identity development.
This Michigan State University and University of Texas-Austin project will focus on making science communication more scientific. It will primarily use interview and survey research to improve societal understanding of how those involved in science communication, particularly scientists, think about science communication. The goal is to use this knowledge to help improve science communication training and recruiting with a focus on increasing the likelihood that scientists will adopt evidence-based communication strategies to increase public interest, engagement, and identification with science, technology, engineering, and math (STEM). A central underlying reason for the study is a mismatch between scientists' motivations and goals when interacting with public audiences and what research suggests would be the most positive and productive with public audiences. This study is funded by the Advancing Informal STEM Learning 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. The project will be conducted in three phases. The first is interviews with a wide range of science communication experts to assess priority research questions. These interviews will be followed by surveys with U.S.-based members of up to 10 different scientific societies representing a broad range of academic fields as well as a survey of science communication researchers. The survey will focus on three different public engagement modes, including face-to-face engagement, online engagement, and engagement via the news media. Consistent with the Theory of Planned Behavior, the surveys will assess scientists' attitudes about public engagement and specific public engagement goals, as well as perceptions of social norms (both descriptive and injunctive) and efficacy beliefs (both internal and external). These will be used as predictors of general and goal-specific engagement willingness, as well as reported past behavior, using multigroup modeling. Potential communication goals of interest include transferring knowledge, developing interest and excitement, building trust in scientists, demonstrating openness and a willingness to listen, shaping how people think about subjects (i.e. framing), and/or defending science. The final phase of the project will explore the potential to design experiments aimed at testing the impact that mention of specific goals has on communication training recruitment as well as the degree to which online content about various goals is attractive to scientists interested in developing their communication skills. The research is the most targeted and largest attempt to date to understand how scientists' views about the public and communication processes may shape science communication behavior.
The Designing Our World (DOW) project centers on science, technology, engineering, and mathematics (STEM) equity and addresses the need for more youth, especially girls, to pursue engineering and fill vital workforce gaps. DOW will integrate tested informal science education (ISE) programs and exhibits with current knowledge of engaging diverse youth through activities embedded in a social context. Led by teams of diverse community stakeholders and in partnership with several local girl-serving organizations, DOW will leverage existing exhibits, girls’ groups, and social media to impact girls’
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TEAM MEMBERS:
Oregon Museum of Science and IndustryAnne Sinkey
Dahlstrom and Ho offer advice on using narrative to communicate about science. They conclude that the rhetorical purpose of the narrative should be thoroughly examined so as not to unfairly influence a reader or listener.
Would religious Americans impose a ten-year moratorium on scientific research? Of 62 interviewees, 60 responded negatively. Interestingly, respondents employed reasoning skills alongside their religious beliefs, complicating the common belief that scientific and religious values cannot co-exist in the same person.
This poster was presented at the 2014 AISL PI Meeting. It describes a project that creates experiences in herpetology (the study of reptiles and amphibians) for rural underrepresented groups.
This poster was presented at the 2014 AISL PI Meeting in Washington, DC. It describes an exhibit developed for bus transit stations designed to reach underrepresented groups in Portland.
This poster was presented at the 2014 AISL PI Meeting in Washington, DC. The project created a bilingual exhibit and surrounding activities to explore the concept of sustainability.
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Oregon Museum of Science and IndustryMarilyn Johnson