This project by teams at the University of Alaska and the Oregon Museum of Science and Industry will engage the public in the topic of the nature and prevalence of permafrost, its scale on the earth and the important role it plays in the global climate. It builds on 50 years of informal education and outreach at the Alaskan Permafrost Tunnel near Fairbanks, AK, which, since the 1960s, has been the Nation's only underground facility for research related to permafrost and climate. The project has four components: (1) a nationally distributed 2,000 square-foot traveling exhibition; (2) exhibit and program enhancements to the learning opportunities at the tunnel; (3) programs, table-top exhibits and oral history research in 27 Native Alaskan villages; and (4) an education research study. Each of these components will be evaluated over the course of the work. By upgrading the displays at the tunnel, and by taking traveling programs to the villages, the work will extend the tunnel experience across Alaska. In the villages the team will collect stories about climate change, along with samples of real ancient ice and permafrost. These stories and materials will be used in the traveling exhibit which is expected to be at three museums per year for eight years. The research component of the initiative will build on the observation to date that the tunnel has provided thousands of visitors with an underground immersive environment where they learn about the science research being conducted and engage with climate-sensitive materials (e.g., permafrost, wedge ice, frozen silt, Pleistocene bones) using all of their senses. It has been conjectured that their learning experiences are enhanced by interacting with real vs. replicated objects. As museums often contain exhibits that are more likely to contain replicated and/or virtual objects and environments, understanding the impact that these different categories of objects have on learning is important. Using both types of materials, the project will investigate differences in their efficacy in informal science learning institutions related to climate change. Real objects are postulated to have the following attributes that stimulate fuller engagement; they are (1) information-rich by virtue of such features as their texture, odor, and dimensionality; (2) at real-life scale; (3) authentic, i.e., original objects; and (4) often unique, i.e., have inherent value. Research questions will explore the potential impacts on learning of these and related features. Methods employed will be observation, video, and interviews of the public with a particular focus on visitor talk with respect to explanations and elaborations about permafrost, tipping points, climate change, and geological time.
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.
A comparison of survey data from 2000 and 2009 supports findings that the California Science Center in Los Angeles provides opportunities for public engagement in science that may not be supported by other education resources. Survey evidence correlates the community’s use of the science center with improvements in science engagement and science literacy.
Nine cultural institutions in one metropolitan community worked together on a study to determine what motivates museumgoers, using John Falk’s visitor-identity model as their theoretical guide and analytical instrument. The results prompted the individual institutions to reflect on their programme development and learning outcomes, their marketing strategies, and their staff professional development.
This paper describes the potential benefits of incorporating art into physics education. Drawing and sculpture provide a way of understanding abstract concepts. The process may also allow educators to “humanize” physics and thus make it more accessible to historically marginalized groups.
To support discussion of tinkering-based learning, the Exploratorium sought to articulate and refine a valid, evidence-based definition of learning in its on-floor "Tinkering Studio." We studied 50 learners and their companions in one of three facilitated tinkering activities in the Tinkering Studio. A team of researchers and practitioners used the videos to refine frameworks for learning and facilitation (initially developed in a prior project), leading to four Dimensions of Learning and three broad Facilitation Moves. We created a Library of Exemplars that categorizes over one hundred video
Research has intimated that engineering design activities can enhance students’ understanding of engineering and technology and can increase their interest in science. Few studies, however, have defined or measured this interest empirically. Dohn examined the effect of an eight-week engineering design competition on 46 sixth-grade students. His findings suggest that design tasks can indeed stimulate interest. He found four main sources of interest: designing inventions, trial-and-error experimentation, making the inventions work, and collaboration.
This 2006 paper reviews the ways in which structured informal learning programs for youth have been characterized in the research literature. The paper synthesizes opportunities for and challenges to research in this domain; it categorizes programs and gives concrete examples of various program types. A proposed Vygotskian research framework is organized around key dimensions of the informal learning context, including location, relationships, content, pedagogy, and assessment.
When engaging in inquiry, learners find it difficult to control variables, design appropriate experiments, and maintain continuity across inquiry sessions. To support learners, researchers developed an inquiry task that promoted record keeping. The aim was to highlight the role that record keeping can play in metacognition and, ultimately, in successful inquiry.
Hamlin provides a how-to guide for leveraging traditional ecological knowledge (TEK) to teach science in indigenous contexts. Her process uses the Vitality Index of Traditional Ecological Knowledge with ethnography to identify TEK. She describes how a community-driven program used TEK to expand the learning opportunities of a historically oppressed group: Maya women in Guatemala.
Briseño-Garzón analyzed interviews with 20 families after they visited Universum Museo de las Ciencias. She concluded that the benefits of visiting a science museum are “much more than science,” including spending quality time together as a family, interacting with others, learning about local culture and history, learning from each other, and, of course, learning science.
Museum educators rarely experience ongoing training. They tend to rely on their past experiences of teaching and learning to guide their interactions with learners. Allen and Crowley describe the implementation of a new school trip program that challenged museum educators’ beliefs. The program involved a five-month process of reflective practice and the iterative testing of student-centered, inquiry-based facilitation approaches.