Living Liquid will identify strategies for creating visualization tools that can actively engage the public with emerging research about the ocean's microbes and their impact on our planet. It addresses a critical issue for the ISE field: creating ways for visitors to ask and answer their own questions about emerging areas of science with visualizations. This Pathway project will provide important lessons learned for a future full-scale development project at the Exploratorium's new location over San Francisco Bay, and for informal science educators and other professionals working to create interactive visualization tools using the vast data sets now available. Living Liquid is a collaboration between developers, educators and learning researchers at the Exploratorium, computer scientists at the Visualization Interface and Design Innovation Group at UC Davis, and marine scientists at the Center for Microbial Oceanography Research and Education. The project's research and development process includes a front-end study of visitors' interests and prior knowledge related to ocean microbes, interviews with scientists to identify potential datasets and activities, a survey of candidate visualizations, and a series of prototypes to identify promising strategies to engage visitors with and allow visitors to explore large scientific datasets through visualization tools.
The University of California, Davis Tahoe Environmental Research Center (TERC), UC Davis W.M. Keck Center for Active Visualization in the Earth Sciences (KeckCAVES), ECHO Lake Aquarium and Science Center (ECHO), UC Berkeley Lawrence Hall of Science (LHS), and the Institute for Learning Innovation (ILI) will study how 3-D visualizations can most effectively be used to improve general public understanding of freshwater lake ecosystems and Earth science processes through the use of immersive three-dimensional (3-D) visualizations of lake and watershed processes, supplemented by tabletop science activity stations. Two iconic lakes will be the focus of this study: Lake Tahoe in California and Nevada, and Lake Champlain in Vermont and New York, with products readily transferable to other freshwater systems and education venues. The PI will aggregate and share knowledge about how to effectively utilize 3-D technologies and scientific data to support learning from immersive 3-D visualizations, and how other hands-on materials can be combined to most effectively support visitor learning about physical, biological and geochemical processes and systems. The project will be structured to iteratively test, design, and implement 3-D visualizations in both concurrent and staggered development. The public will be engaged in the science behind water quality and ecosystem health; lake formation; lake foodwebs; weather and climate; and the role and impact of people on the ecosystem. A suite of publicly available learning resources will be designed and developed on freshwater ecosystems, including immersive 3-D visualizations; portable science stations with multimedia; a facilitator's guide for docent training; and a Developer's Manual to allow future informal science education venues. Project partners are organized into five teams: 1) Content Preparation and Review: prepare and author content including writing of storyboards, narratives, and activities; 2) 3-D Scientific Visualizations: create visualization products using spatial data; 3) Science Station: plan, design, and produce hands-on materials; 4) Website and Multimedia: produce a dissemination strategy for professional and public audiences; 4) Evaluation: conduct front-end, formative, and summative evaluation of both the 3-D visualizations and science activity stations. The summative evaluation will utilize a mixed methods approach, using both qualitative and quantitative methods, and will include focus groups, semi-structured interviews, web surveys, and in-depth interviews. Leveraging 3-D tools, high-quality visual displays, hands-on activities, and multimedia resources, university-based scientists will work collaboratively with informal science education professionals to extend the project's reach and impact to an audience of 400,000 visitors, including families, youth, school field trip groups, and tourists. The project will implement, evaluate, and disseminate knowledge of how 3-D visualizations and technologies can be designed and configured to effectively support visitor engagement and learning about physical, biological and geochemical processes and systems, and will evaluate how these technologies can be transferred more broadly to other informal science venues and schools for future career and workforce development in these critical STEM areas.
Researchers at the American Association of Variable Star Observers, the Living Laboratory at the Boston Museum of Science, and the Adler Planetarium are studying stereoscopic (three-dimensional or 3D) visualizations so that this emerging viewing technology has an empirical basis upon which educators can build more effective informal learning experiences that promote learning and interest in science by the public. The project's research questions are: How do viewers perceive 3D visualizations compared to 2D visualizations? What do viewers learn about highly spatial scientific concepts embedded in 3D compared to 2D visualizations? How are viewers\' perceptions and learning associated with individual characteristics such as age, gender, and spatial cognition ability? Project personnel are conducting randomized, experimental mixed-methods research studies on 400 children and 1,000 adults in museum settings to compare their cognitive processing and learning after viewing two-dimensional and three-dimensional static and dynamic images of astronomical objects such as colliding galaxies. An independent evaluator is (1) collecting data on museum workers' and visitors' perceived value of 3D viewing technology within museums and planetariums and (2) establishing a preliminary collection of best practices for using 3D viewing technology based on input from museum staff and visitors, and technology creators. Spatial thinking is important for learning many domains of science. The findings produced by the Two Eyes, 3D project will researchers' understanding about the advantages and disadvantages of using stereoscopic technology to promote learning of highly spatial science concepts. The findings will help educators teach science in stereoscopic ways that mitigate problems associated with using traditional 2D materials for teaching spatial concepts and processes in a variety of educational settings and science content areas, including astronomy.
In partnership with the University of Pennsylvania's Graduate School of Education, The Franklin Institute Science Museum will develop, test, and pilot an exportable and replicable cyberlearning exhibit using two cutting edge technologies: Augmented Reality (AR) and Virtual Reality (VR). The exhibit's conceptualization is anchored in the learning research vision of the NSF-funded workshop Cyberinfrastructure for Education and Learning for the Future (Computing Research Association, 2005). The incorporation of VR and AR technologies into the Franklin Institute's electricity and Earth science exhibits is an innovation of traditional approaches to hands-on learning and will improve the quality of the learning experience for the primary audience of families with children and elementary school groups. The project has implications for future exhibit development and more broadly, will provide new research on learning on how to incorporate cyberlearning efforts into traditional exhibits. Fifteen participating exhibit developers across the ISE field will assist in the evaluation of the new exhibit; receive training on the design and development of VR and AR exhibits for their institutions; and receive full access to the exhibit's new software for implementation at their informal learning sites. The technology applications will be developed by Carnegie Mellon University's Entertainment Technology Center--leaders in the field in Virtual Reality design and development. Front-end and formative evaluation will be overseen internally by the Franklin Institute. The Institute for Learning Innovation will conduct the summative evaluation. Research will be conducted by the University of Pennsylvania's Graduate School of Education on the effects of AR and VR technologies on exhibit learning.
This presentation outlines the front-end and formative evaluation of the redesigned Ancient Worlds Gallery at the Milwaukee Public Museum (MPM), set to open in the spring of 2015. The gallery will contain artifacts, props, and interactives pertaining to ancient Near Eastern, Egyptian, Greek, and Roman cultures. The previous MPM exhibition featuring these civilizations was presented chronologically; for this new gallery, six themes have been selected to guide the visitor experience: construction, communion, community, communication, commerce, and conflict. When affiliated with the Institute for
The University of Southern California's Institute for Creative Technologies (ICT) and the Museum of Science, Boston (MoS) were awarded an Informal Science Education grant from the National Science Foundation (#0813541) for the project, Responsive Virtual Human Museum Guide. The goal of the project was to use computer-generated character animation, artificial intelligence, and natural language processing to create interactive characters, or virtual humans, that could engage in face-to-face communication with museum visitors. During the three year project, the MOS and ICT project teams created
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Susan FoutzJeanine AnceletKara HershorinLiz DanterUniversity of Southern CaliforniaMuseum of Science
WGBH received funding to develop and create NOVA Labs, an online environment that provides teen audiences with an online research lab, educational content, and the opportunity to engage with authentic data, tools, and processes to investigate scientific questions. This work has begun with the development of a first pilot lab, called The Sun Lab. NOVA Education created and launched this lab in early summer 2012. Examining the site in its pilot form, the Lifelong Learning Group (LLG) engaged in a formative evaluation to support refinements and improvements in the design of subsequent NOVA Lab
A multimodal semiotic approach is applied in this chapter to three examples to illustrate how the use of digital technology in museums and galleries can re-mediated the visitor experience (Jewitt, 2009; Kress, 2009). The examples are selected to expand upon the themes raised in Chapter X. They each explore different technologies, contexts and purposes and to illustrate the successful use of digital technology in exhibitions, galleries, or interventions: 1. You Tube and Flickr: The Weather Project by Olafur Eliasson at the Tate Modern Museum; 2. Interactive artefacts, virtual tours and Websites
Journey to Space will be a large-scale traveling exhibition that simulates a journey to the International Space Station (ISS), allows visitors to explore the physical properties of low gravity environments, and introduces some of the engineering and technology that makes it possible to live and work in space. A collaborative project led by the Science Museum of Minnesota joined by the California Science Center and the three other members of the Science Museum Exhibit Collaborative, the exhibition will encourage museum visitors 1) to immerse themselves in the sights, sounds, and smells that astronauts experience traveling to, and living in, space; 2) to engage as problem solvers with some of the unique engineering challenges that must be solved to support living and working in space; and 3) to experience life aboard the International Space Station interpreted through the voices of engineers, scientists, and astronauts. In addition to the exhibition, the project will include a public website and a two-year youth program for underserved teens that will result in a three-day Celebration of Space Exploration Chautauqua aimed especially at underserved families in the Twin Cities metropolitan area. The exhibition will tour to twelve major science museums across North America and reach upwards of three and a quarter million families, adults, teachers, and students over six years.
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Eric JollyPaul MartinJ. Shipley Newlin
Painting with Natural Selection is an interactive installation that uses evolution and scientific experimentation to create an artistic experience. Painting is the second phase of a larger art and science project that explores the relationship between evolution and reproduction. Phase I was building custom software that simulates virtual organisms growing, reproducing and evolving - Evorepro. Evorepro was funded by a Science Education Partnership Award led by Dr. John A. Pollock at Duquesne University. Painting was funded by a Spark Award from the Sprout Fund. In Painting, kids influence the evolution of simulated bacteria by changing their virtual environment. The experience allows kids to get creative right away as they develop an intuitive understanding of the ebb and flow of evolutionary processes. The virtual organisms respond and evolve in real-time creating a visceral connection between the individual and their impact in the virtual world that leads to an awareness of our footprint in our real world and wonder at life's adaptability.
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Carnegie-Mellon UniversityJoana Ricou
This CRPA project produced a human-like avatar exhibit for the Orlando Science Center that verbally communicates with middle and high school grade visitors, engaging them in the subjects of computer science, artificial intelligence, and engineering. Human-like characteristics include features to match the demographics of the Center's clientele and verbal communication in the English language. In addition to discussing how avatars are developed and how artificial intelligence works, the avatar image will answer questions from the visitors on selected topics, including subjects from the media models of Avatar and IBM's Watson event on Jeopardy. Considerable planning and research has gone into this project to make sure that the avatar is life-like and can engage in realistic dialog. The avatar images will resemble real individuals who have diverse demographic characteristics in order to enhance the human-computer interface. The system is designed to deal with background noise and antagonistic visitors. Evaluation at all levels (front-end, formative, and summative) will make the exhibit most effective and facilitate the goals of the project which are to inform the target audience on STEM subjects. The desire to have electronic analogs of humans has been a goal for half of a century. This project builds on prior research in this area and is one of the most sophisticated contemporary models in the field. It is anticipated that this work may contribute to future applications in education and assistance for individuals with disabilities. Moreover, engagement with the avatar may ignite curiosity among young visitors and stimulate interest in science careers.
In this paper, we present the DeepTree exhibit, a multi-user, multi-touch interactive visualization of the Tree of Life. We developed DeepTree to facilitate collaborative learning of evolutionary concepts. We will describe an iterative process in which a team of computer scientists, learning scientists, biologists, and museum curators worked together throughout design, development, and evaluation. We present the importance of designing the interactions and the visualization hand-in-hand in order to facilitate active learning. The outcome of this process is a fractal-based tree layout that