The Tech Museum of Innovation (The Tech) in San Jose, California proposes to partner with NOAA to integrate Science On a Sphere (SOS) into The Tech's Exploration gallery and to facilitate the development of informal and formal learning programs. Exhibits and programs at The Tech focus on the integration of emerging technologies into hands-on visitor experiences. In 2004, The Tech partnered with NOAA, the Maryland Science Center (MSC), and a consortium of national science centers to explore the potential and effectiveness of SOS as a method of engaging and informing the general public about NOAA-related sciences. Initial testing of SOS at the Maryland Science Center revealed that SOS is a visually compelling and engaging medium for conveying complex scientific information to museum visitors. Ninety-eight percent of visitors tested regarded a facilitated SOS program as a good or excellent experience with strong visitor retention suggesting the potential of SOS as a compelling visitor tool. However, when the experience was not facilitated this retention dropped dramatically. Support from NOAA will enable The Tech to test SOS and NOAA data in a number of formats to determine the most effective ways to utilize this incredible technology. The results of this evaluation will be shared with other museums using SOS to improve its reach in teaching informal audiences and promoting interest in both STEM content and NOAA research. The SOS exhibit will bring together scientists, technologists, informal education specialists, and young users to unlock the educational potential of NOAA's datasets and further NOAA's educational plan. Hands-on experiences using SOS will engage visitors in meaningful explorations of NOAA data. The Tech Museum will make SOS accessible to people of all ages, backgrounds, and educational levels. All panel text, audio, and captions will be presented in both English and Spanish to allow greater accessibility for local audiences. SOS will provide the programming platform upon which to explore the educational opportunities of this gallery as it illustrates how data collected with remote sensing technologies is helping us understand and make predictions about our dynamic environment and the future of our planet. SOS will illustrate how these data collecting technologies assist us in developing our knowledge about our planet and its solar system.
The Ocean Science project integrates the Ocean Literacy Essential Principles and Fundamental Concepts into a Western Washington region-wide, coordinated program of formal and informal education consisting of: 1. Teacher professional development in the ocean sciences to integrate the Ocean Literacy Essential Principles and Fundamental Concepts into inquiry-based marine science education and instruction; 2. Evaluation and re-alignment of existing Sound Science ecosystems curricula into Ocean Science, incorporating NOAA data and promoting the Ocean Literacy Essential Principles and Fundamental Concepts; 3. Classroom programs, beach field investigations, and on-site programs at the Seattle Aquarium of the Olympic Coast national Marine Sanctuary's Olympic Coast Discovery Center for grades 4-5 students, their parents and teachers; 4. Parent training in ocean science content, the Ocean Literacy Essential Principles and Fundamental Concepts, and inquiry-based methods for supporting their children's science education; 5. Informal education for the general public via an interactive learning station linked to the Window on Washington Waters exhibit and designed to innovatively use NOAA data and information (videos, computer simulations and other creative media) to increase and evaluate ocean literacy in adults and children. Window on Washington Waters displays the outer coast marine environments and sea life of the Olympic Coast National Marine Sanctuary.
An effective communication of astronomy cannot take place without considering the view the general public has on the universe. Through a number of narrative interviews with non-experts, a research was carried out on personal cosmologies, to outline the public’s heterogeneous astronomical imagery. The result is a bundle of conceptions, perceptions and attitudes which are useful to interpret the difficulties the public experiences when facing the contents of astrophysics, and to establish an ongoing dialogue.
The Royal Society published in late June a report entitled «Science Communication. Survey of factors affecting science communication by scientists and engineers». It is an in-depth survey on the communication addressed to non-specialist audiences that was carried out interviewing a wide and representative sample of UK scientists and engineers.
The many facets of fundamentalism. There has been much talk about fundamentalism of late. While most people's thought on the topic go to the 9/11 attacks against the United States, or to the ongoing war in Iraq, fundamentalism is affecting science and its relationship to society in a way that may have dire long-term consequences. Of course, religious fundamentalism has always had a history of antagonism with science, and – before the birth of modern science – with philosophy, the age-old vehicle of the human attempt to exercise critical thinking and rationality to solve problems and pursue
The debate on Darwin’s theory of evolution is a unique case for observing some particular ways in which science is perceived and experienced in society. It is a dispute which is really not very scientific at all, since it ultimately derives from the attempt to discredit a corroborated scientific explanation (and to limit its teaching) by fundamentalist fringe groups of religious and political movements of various extraction. However, it is undeniable that the clash between creationists and evolutionists must also involve, in a critical and self-reflective way, the communicative weaknesses of
In May 2004 the Balì Museum, Planetarium and interactive science museum, was opened to the public in Italy: 35 hands-on exhibits designed according to the interactive tradition of the Exploratorium in San Francisco, an astronomic observatory for educational activities, a Planetarium with 70 places. With a total investment of about three million euros, about two thirds of which were spent on restructuring the splendid eighteenth-century villa in which it is housed, the undertaking may be considered a small one in comparison with other European science centres. Three million euros: perhaps
Do we have to drag in the thought of Michel Foucault to show the political (and not neutral), partial and local (and not universal and non-historic), active (and not merely transmissive) face of science communication? Do we need the work of the controversial French intellectual to dispute the anxious search – almost a quest like that for the Holy Grail – for the “best practices” in the dissemination of scientific culture? If we read over the pages that Foucault dedicated to words and things, to the archaeology and genealogy of knowledge, to biopolitics, we have few doubts. Two elements, on the
In recent years, novel paradigms of computing have emerged, which enable computational power to be embedded in artefacts and environments in novel ways. These developments may create new possibilities for using computing to enhance learning. This paper presents the results of a design process that set out to explore interactive techniques, which utilized ubiquitous computer technology, to stimulate active participation, involvement and learning by children visiting a museum. Key stakeholders, such as museum curators and docents, were involved throughout the process of creating the exhibition
This essay begins by considering museum studies in relationship to curriculum studies and new museology. The author notes that traditional museum and school learning modes have focused more on measurement than meaning, while curriculum studies and new museology urge a broader exploration of the social purposes of education. Drawing on the work of Myles Horton and the Highlander Folk School, popular education is offered as a model for exhibitors and other museum educators. The essay closes with examples from an exhibit project by graduate students. This section shares analyses of traditional
Building on and extending existing research, this article proposes a 4-phase model of interest development. The model describes 4 phases in the development and deepening of learner interest: triggered situational interest, maintained situational interest, emerging (less-developed) individual interest, and well-developed individual interest. Affective as well as cognitive factors are considered. Educational implications of the proposed model are identified.