Explore awards

The Environmental Literacy for Alaska Climate Stewards (ELACS) project served 84 K-12 educators and 1,080 Alaskan students in predominantly Alaska Native coastal villages. The project provided opportunities to build understandings of how climate change impacts local environments, increase overall climate literacy, and contribute to community resilience. Participants were primarily from the Chugach School District and the Kenai Peninsula Borough School District, both located in the southcentral region of Alaska. Students and teachers in the Aleutian Region School District, Nome City Schools, and the North Slope Borough School District (southwestern, northwestern, and northern Alaska, respectively) participated to a lesser extent in novel learning experiences made available through collaborative partnerships that emerged during the grant period. The project focused on three areas: teacher professional development, classroom instruction, and community engagement. Professional development included training in project-based learning and co-teaching/coaching sessions with master teachers. Classroom instruction engaged students in meaningful, innovative, place-based, project-based learning, and citizen-science activities focused on site and community needs. Students monitored their local environments, built or otherwise used ocean observation systems, collected data, and represented their new knowledge through presentations and art. Significant outcomes included student work on the relationship between phytoplankton and salmon conservation in Chenega Bay, a Living History Project that engaged community members and elders with traditional ecological knowledge in Tatitlek, and engagement in weather and environmental monitoring plans for the community of Whittier (potentially threatened by tsunamis generated by unstable slopes in a nearby fjord). Students shared active research regarding impacts and available resources. ELACS aligned with and supported NOAA’s educational mission by helping the target populations understand and predict changes in climate, weather, oceans, and coasts. This project promoted students’ environmental stewardship and a deeper understanding of a changing environment at both local and global levels. Throughout the four-year project, students and teachers worked with scientists and experts in education, climate change, and marine science using project-based learning approaches and educational technology. A notable (but not exhaustive) list of partners included researchers from NOAA’s Kasitsna Bay Laboratory, the College of Fisheries and Ocean Sciences and the International Arctic Research Center (both at the University of Alaska Fairbanks), the Polar Science Center (University of Washington), Ground Truth Trekking, and the Center for Alaska Coastal Studies. Educational consultants included STEMisEd, Teknikio, NexMap, Build-A-Buoy, and EcoArt Expeditions. Corporate and non-profit partners included WeatherFlow, Inc., Batelle, Inc., Cook Inlet Tribal Council, and Alaska Science Teachers Association.

Climate change disproportionately impacts low-income and otherwise marginalized communities that typically have the fewest resources to adapt. Furthermore, the very communities that feel the effects of climate change most acutely have been historically underrepresented in the fields of sustainability and green building. The Building a Green Texas (BGT) project helps address these concerns by giving high school students opportunities to develop the knowledge, skills, and confidence to tackle challenges posed by climate change. In the process, students gain valuable green career skills and credentials and become part of a green building school-to-job pipeline that will help contribute to a more diverse workforce. Texas-based nonprofit EcoRise, the University of Texas at Austin, and the University of Texas Marine Science Institute/National Estuarine Reserve System of NOAA’s Office for Coastal Management will lead this robust, three-year project beginning in Central Texas in Year 1 and expanding into Houston and Texas Gulf Coast communities in Year 2. Through school-year field experiences and paid summer internships, students in the program will use established scientific evidence, citizen science, and an understanding of location-specific socioeconomic and ecological factors to explore current and future extreme weather phenomena and other environmental hazards facing their communities. They will gain real-world learning experiences and career exposure by directly engaging with scientists, civic leaders, green building professionals, and NOAA data and staff. As students help design community-based green building projects, they will consider scientific uncertainty, cultural knowledge, and social equity, in the real-world context of improving community resilience.

Literacy Volunteers America of Monroe County and The College of Exploration are developing and implementing a pilot project to target traditionally under-represented ethnic groups who are limited English proficient – many reading and writing in English at the grade 0 - grade 5.5 level. The project goals are for learners of English as a Second Language (ESL) to use digital photo cameras, digital video cameras, waterproof underwater HD cameras and GPS technologies to geo-locate, explore, observe, record, display and tell stories in English both in words, photos and short HD video clip sequences. Stories will be about the exploration of places like the National Marine Sanctuaries and other areas of the country and coasts where there are scientific observation and monitoring opportunities created and supported by NOAA partners.

The "Citizen Science, Civics, and Resilient Communities” (CSCRC) project led by the Museum of Science, Boston in partnership with Arizona State University, Northeastern University, SciStarter, and the National Informal STEM Education Network (NISE Net), engaged thousands of public participants around the United States in participatory data collection and community deliberation about four climate-related hazards: heat waves, sea level rise, extreme precipitation, and drought. The aims of the project were to increase resilience to extreme weather and environmental hazards through the inclusion of community-generated data, local knowledge, and community values into civic planning, and to increasing capacity among science centers and informal educators for including publics in resilience planning and data collection. The project formulated, iterated, and evaluated a science-to-civics model that included agenda-setting, decision-making and policy forming phases. These activities were developed and implemented by educators at 30 US science centers in collaboration with local resilience planners. Groups of participants in each community collected, analyzed, and shared data about locally relevant hazards; learned about vulnerabilities through visualizations of geospatial data; participated in deliberative, participatory resilience planning and shared perspectives about resilience strategies and their societal and environmental trade-offs; formulated community resilience plans that brought forth diverse perspectives; and presented their findings and recommendations to resilience planners and publics. Participants contributed community-generated data such as urban heat island maps, precipitation data from rain gauges, or documented extreme events through photos of their communities. These data were visualized through StoryMaps, exhibited at local libraries and fairs, and used to facilitate community discussions about the tradeoffs of proposed resilience strategies. Many of the deliberation and participatory science activities pivoted to online formats in response to the pandemic. These digital engagement activities provided new and unanticipated challenges, but also new opportunities connect project participants and capture participant engagement in powerful ways. Our project evaluation found that citizen science and Forum participants increased their knowledge around climate hazards, resilience strategies and their tradeoffs. Participants also increased their confidence and interest in engaging with climate topics, including ways to take action around community climate hazards, contributing to citizen science efforts, and contributing to public policy. Museum professionals found that the project positively impacted their ability to implement science to civics activities, felt supported by the trainings and materials, and planned to continue implementing these programs provided they had continued access to materials, tools, and experts. Many of the project materials are freely available for download at nisenet.org/cscrc and the local project portals documenting the citizen science activities can be found at scistarter.org/noaa.

The Interpretation of Real-time Weather and Climate for Spherical Displays (EarthNow) project utilizes the Science on a Sphere (SOS) Network to enable meaningful interpretation of real-time weather and climate data by museum docents and visitors viewing SOS exhibits nationwide. The project will generate and provide real-time NOAA weather, climate and ocean data to the SOS Network along with appropriate training for docents. It will also provide data interpretation summaries, data discussions and concise talking points on a regularly updated blog. This project is being implemented by a collaborative team of two weather and climate centers of NOAA/NESDIS: the Cooperative Institute for Meteorological Satellite Studies (CIMSS) and Cooperative Institute for Climate and Satellites (CICS), in association with the NOAA Environmental Visualization Laboratory, the I.M. Systems Group, and the Maryland Science Center.