The urgent state of our global environment calls for collective action, which depends in large part on effective science communication for better understanding and awareness. Activities and institutions that provide opportunities to learn about nature all ultimately rely on scientific findings about nature. Although science produces the knowledge and information about nature, for the content to be accessible and meaningful to the general public, it needs to be processed by what I call science content design. This process is similar to the concepts of interpretation in tourism, or aesthetic
Science communication is an increasingly important field of activity, research and policy. It should not be assumed however, that science communication practices provide equitable and empowering opportunities for everyone. Social exclusion, inclusion and equity are key challenges for practitioners, researchers, policy makers and funders involved with science communication. In this commentary I reflect on the limitations of the ‘barriers approach to understanding social inclusion and exclusion from science communication and argue instead that a more complex perspective is needed. I conclude
Social inclusion is an emerging preoccupation in the science communication field. The political value of science communication (e.g. in terms of empowerment) and the necessity to address all audiences has always been considered, but in recent times the participation agenda has enriched the rationale and methodologies of the communication of science: social inclusion is not only an issue of access to knowledge, but also of governance and co-production.
An evaluation toolkit developed as part of the EU-funded PLACES project was applied in 26 case studies across Europe. Results show, among other things, the contribution of science communication initiatives to public curiosity, professional networking and perception of cities where these initiatives are stronger.
While some public works are monumental civil engineering structures like the Eiffel Tower or the Sydney Harbour Bridge, most are commonplace, even invisible, and they are taken for granted. The reason for existence of public works is to provide basic services, but both large and small infrastructure facilities also present opportunities to engage the public in understanding fundamental concepts of Science, Technology, Engineering, and Mathematics (STEM). We review here lessons learned in the National Science Foundation-funded Golden Gate Bridge Outdoor Exhibition project. Using the title of
Even in the best-resourced science communication institutions, poor quality evaluation methods are routinely employed. This leads to questionable data, specious conclusions and stunted growth in the quality and effectiveness of science communication practice. Good impact evaluation requires upstream planning, clear objectives from practitioners, relevant research skills and a commitment to improving practice based on evaluation evidence.
How do people make sense of conflicting beliefs? Although Gottlieb & Wineburg’s paper is about highly educated professionals reading history, informal science educators will recognize similar issues when working with people who hold beliefs incompatible with scientific ways of understanding the world. “Epistemic switching” was a way of considering criteria for truth, reliability, and validity according to one belief system or another. Rather than simply believing or excluding ideas as people who held to only one value system, the people with multiple, competing affiliations actually more
Discover NASA is the Discovery Museum’s endeavor to engage students in grades K through 12 as well as members of the general public in innovative space science and STEM-focused learning through the implementation of two modules: upgrades to the Challenger Learning Center, and the creation of K through 12 amateur rocketry and spacecraft design programming. The programming will be piloted at the Discovery Museum and Planetarium, and at the Inter-district Discovery Magnet School and the Fairchild-Wheeler Multi-Magnet High School, with an additional strategic partnership with the University of Bridgeport, which will provide faculty mentors to high school seniors participating in the rocketry program. Through these two modules, the Discovery Museum and Planetarium aims to foster an early interest in STEM, increase public awareness about NASA, promote workforce development, and stimulate an interest in the future of human space exploration. Both modules emphasize design methodologies and integration of more advanced space science into the STEM curriculum currently offered by Discovery Museum to visitors and public schools. The Challenger Learning Center upgrades will enable the Museum to deliver simulated human exploration experiences related to exploration of the space environment in Low Earth Orbit and simulated human exploration of Moon, Mars, and beyond, which will increase public and student awareness about NASA and the future of human space exploration. The development of an amateur rocketry and spacecraft development incubator for education, the general public, and commercial space will stimulate the development of key STEM concepts.
Lincoln Park Zoo will upgrade and make freely available ZooMonitor, a scientific data collection tool, which currently exists in a pilot version, for monitoring the behavior of animals in zoos and aquariums, . ZooMonitor will contain modules for tracking animal behavior and body condition and for conducting data analysis. The zoo will also integrate a platform for securely storing an institution's data. With these modifications, ZooMonitor will be rigorously tested by industry partners, translated for both Apple and Android devices, and made available for free public download. ZooMonitor will enable any zoo or aquarium, regardless of collection size, budget, or number of staff, to develop a routine monitoring program—improving the lives of hundreds of thousands of animals across the country and around the world.
The Mütter Museum will develop a new interactive online exhibit that explores the important role of medicine in American history through its unique collections. In keeping with the museum's broader medical humanities focus, the online exhibit will be presented thematically in a life cycle sequence. Representative objects will include obstetrical forceps, an iron lung, a surgical kit, William Harvey's book on blood circulation De Motu Cordis, eyeglasses, a tooth extractor, and an embalming kit. The museum will also develop a curriculum that addresses national secondary school education standards in history, science, and health by utilizing narrative stories, specimens, models, medical tools, photographs, and texts from collections. Exploring historic events and their health and medical underpinnings through an interesting narrative lens will engage audiences in critical STEM topics by connecting personal stories to the objects actually used to understand disease and heal people.
The L.C. Bates Museum will provide 1,700 rural fourth grade students and their families museum-based STEAM (Science, Technology, Engineering, Art, and Mathematics) educational programming including integrated naturalist, astronomy, and art activities that explore Maine's environment and its solar and lunar interactions. The project will include a series of eight classroom programs, family field trips, TV programs, family and classroom self-guided educational materials, and exhibitions of project activities including student work. By bringing programs to schools and offering family activities and field trips, the museum will be able to engage an underserved, mostly low-income population that would otherwise not be able to visit the museum. The museum's programming will address teachers' needs for museum objects and interactive explorations that enhance student learning and new Common Core science curriculum objectives, while offering students engaging learning experiences and the opportunity to develop 21st century leadership skills.
The Strybing Arboretum and Botanical Gardens will link and integrate its digital geographic information system (GIS) to its plant collections database, making possible the creation of GIS-derived applications that will ultimately impact all areas of the museum's operations. Following the system integration, the institution will develop applications and train staff members on how to develop GIS-derived applications tailored to enhance the learning experiences of visitors and program participants. The integrated database will serve as a resource that will positively impact learning experiences for the gardeners who maintain the plant collections, visitors to the garden, participants in education programs, and people accessing information online. The project will also help demonstrate the potential of spatial data to benefit collections-management activities and public programming.