NOVA Labs (pbs.org/nova/labs) is a free digital platform that engages teens and lifelong learners in activities and games that foster authentic scientific exploration. From building RNA molecules and designing renewable energy systems to tracking cloud movements and learning cybersecurity strategies, NOVA Labs participants can take part in real-world investigations by visualizing, analyzing, and playing with the same data that scientists use. Each Lab focuses on a different area of active research. But all of them illustrate key concepts with engaging and informative videos, and guide participants as they answer scientific questions or design solutions to current problems. Supporting pages on each Lab site explain the purpose and functions of the Lab, help teachers incorporate it into their classrooms, foster collaboration between users, and help users make connections to the broader world of STEM. Users are encouraged to explore potential career paths through “Meet the Scientists” profiles, and to obtain information about local and national STEM resources.
This poster was presented at the 2014 AISL PI Meeting in Washington, DC. It describes a project that will expand the functions and applications of FieldScope, a web-based science information portal currently supported by the National Geographic Society (NGS). The goal is to create a single, powerful infrastructure for Public Participation in Science Research (PPSR) projects that any organization can use to create their own project and support their own community of participants.
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National Geographic SocietyMary Ford
This article describes how two inquiry games promoted student science skills in a museum setting while minimizing demands on teachers, fostering collaboration, and incorporating chaperones. Students who played these games engaged in more scientific inquiry behaviors than did students in control groups.
In 2009, NSF funded development of Model My Watershed (MMW), a place-based, watershed cyber-modeling tool for middle and high school students and teachers. The online learning tool encourages students to investigate their neighborhoods and use scientific reasoning with real-world decision-making models similar to those used by STEM professionals to simulate systems and analyze processes. The project also sought to increase youth interest in possible opportunities in the STEM workforce and to aid in development of knowledge about earth science. This summary represents the first of a two-phase
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Stroud Water Research CenterJohn Fraser
In the many studies of games and young people's use of them, little has been written about an overall "ecology" of gaming, game design and play—mapping the ways that all the various elements, from coding to social practices to aesthetics, coexist in the game world. This volume looks at games as systems in which young users participate, as gamers, producers, and learners. The Ecology of Games (edited by Rules of Play author Katie Salen) aims to expand upon and add nuance to the debate over the value of games—which so far has been vociferous but overly polemical and surprisingly shallow. Game
This article draws from the literature on self-determination and Universal Design for Learning principles to set forth the theory that students identified as having learning disabilities may be environmentally disadvantaged and their learning difficulties exasperated by the traditional classroom learning environment. Alternatively, the digital learning environment found in simulation video games is designed so participants can be autonomous, self-directed, goal-oriented and successful. These are, coincidentally, the salient features of a technology-enhanced learning environment designed with
This article reviews how the relationship between computer games and learning has been conceptualized in policy and academic literature, and proposes a methodology for exploring learning with games that focuses on how games are enacted in social interactions. Drawing on Sutton-Smith's description of the rhetorics of play, it argues that the educational value of games has often been defined in terms of remedying the failures of the education system. This, however, ascribes to games a specific ontology in a popular culture that is defined in terms of its opposition to school culture. By
Both in common parlance and within the academy, the word “learning” has broad and varied meanings. On the street, we apply the same term to a child who, as a result of bitter experience, will no longer tease an older, tougher peer, and to those who achieve the highest Latinate degrees after many years of study at the University. In the field of psychology, “learning” was the major topic in America for fifty years, before it was replaced and almost consigned to oblivion, courtesy of the “cognitive revolution” of the 1960s (Gardner 1985). Now, with study becoming a lifelong enterprise, and with
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Margaret WelgelCarrie JamesHoward Gardner
This article focuses on understanding how games and immersive participatory simulations, with their focus on doing science, are becoming an emerging type of curricula for supporting science education. It discusses the theoretical frameworks positing that knowing is a contextual and participatory act. The context in which one learns any particular content shapes resultant understandings of that content. Moreover, knowledge and skills in science should be established as an inquiry process and that new technologies and design methodologies can facilitate this process.
In this article, we describe a preliminary study that integrates research on engineering design activities for K-12 students with work on microworlds as learning tools. Here, we extend these bodies of research by exploring whether - and how - authentic recreations of engineering practices can help students develop conceptual understanding of physics. We focus on the design-build-test (DBT) cycle used by professional engineers in simulation-based rapid modeling. In this experiment, middle-school students worked for 10 hr during a single weekend to solve engineering design challenges using
To date, the major emphasis of educational technology researchers has been the development and use of educational technologies within school settings. Noticeably absent has been research and considerations that focus on the home as a computer-based learning environment and potential connections between school and home learning. Given the increasing prevalence of computers in homes, the authors argue for an explicit research focus on the various ways that computers in homes can be used to create rich learning environments or extend school-based learning environments. To that end, this article
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Yasmin KafaiBarry FishmanAmy BruckmanSaul Rockman
Considerable research has compared how students learn science from computer simulations with how they learn from "traditional" classes. Little research has compared how students learn science from computer simulations with how they learn from direct experience in the real environment on which the simulations are based. This study compared two college classes studying introductory oceanography. One class learned using an interactive computer simulation based on a dynamic, three-dimensional model of physical oceanography. The other class learned by spending a day on a research ship using
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TEAM MEMBERS:
William WinnFrederick StahrChristian SarasonRuth FrulandPeter OppenheimerYen-Ling Lee