Curious Scientific Investigators (CSI): Flight Adventures immerses children and families in science, technology, engineering, and math (STEM) disciplines. Launched in February 2012, the project supports NASA’s Aeronautics Research Mission Directorate (ARMD), focusing on “innovative ideas to convey the fundamentals of flight, flight technology, and NASA’s role in aeronautics.” The project’s audience includes youth ages 6-18 and the Museum’s more than 1 million annual visitors of all ages. The project’s lead agency, The Children’s Museum of Indianapolis (Museum), developed and implemented the project in Indianapolis in partnership with the Academy of Model Aeronautics and NASA Dryden Flight Research Center. The project’s goals focus on inspiring children and families to develop an interest in STEM concepts and learn about NASA’s role in science and aeronautics research and the evolution of flight, and on engaging and educating them through inquiry-based programs that facilitate understanding of STEM concepts and knowledge and NASA’s contributions to flight. Centered on an original Multimedia Planetarium Show on flight, Flight Adventures, the Museum designed several components, all of which complement the show and the messages it conveys. Among these components are an exhibit area composed of a movable wind tunnel, a display of models, low- and high-tech interactives; a Unit of Study; a TV show, Wings Over Indiana; a website; and a variety of educational and family programs.
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TEAM MEMBERS:
Jennifer Pace-RobinsonGordon Schimmel
The Children’s Museum of Indianapolis (Museum) is creating Curious Scientific Investigator (CSI): Beyond Spaceship Earth, a project geared towards immersing children and families in science, technology, engineering, and math (STEM) disciplines, which will be launched in 2016.
As the lead institution, the Museum is partnering with NASA Johnson Space Center (JSC), Purdue University, and SpaceX to implement the project in Indianapolis.
CSI: Beyond Spaceship Earth will introduce children and families to the science of human space exploration in the 21st century. Through an array of informal learning experiences aimed at promoting STEM concepts and NASA’s educational outcomes the project will pursue the following objectives:
Immerse visitors in the ISS and laboratory environments;
Provide an environment to allow performing and manipulating experiments to understand the importance of NASA’s research and exploration; and
Engage in real-life and simulated experiences, including interactions with university students studying STEM disciplines, which encourage children and youth to explore STEM skills and careers through NASA’s research and exploration.
The Museum has designed an immersive International Space Station-themed exhibit along with contextual and authentic activities for children and families, with production set to begin in late 2015. Museum teams are currently completing front-end research, prototyping and exhibit design. Leveraging family and informal learning expertise and incorporating the experiences of real astronauts, this project will support understanding of NASA’s Human Exploration and Operations Mission Directorate (HEOMD) research and operations. This exhibit will also promote interest, engagement, and awareness of NASA’s achievements in space exploration and how these benefit life on Earth.
STEM Integration in K-12 Education examines current efforts to connect the STEM disciplines in K-12 education. This report identifies and characterizes existing approaches to integrated STEM education, both in formal and after- and out-of-school settings. The report reviews the evidence for the impact of integrated approaches on various student outcomes, and it proposes a set of priority research questions to advance the understanding of integrated STEM education. STEM Integration in K-12 Education proposes a framework to provide a common perspective and vocabulary for researchers
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TEAM MEMBERS:
National Research CouncilMargaret HoneyGreg PearsonHeidi Schweingruber
In case studies of two first-year elementary classroom teachers, we explored the influence of informal science education (ISE) they experienced in their teacher education program. Our theoretical lens was identity development, delimited to classroom science teaching. We used complementary data collection methods and analysis, including interviews, electronic communications, and drawing prompts. We found that our two participants referenced as important the ISE experiences in their development of classroom science identities that included resilience, excitement and engagement in science
American educators and policymakers have often claimed that the arts can have powerful effects in education and that these effects may reverberate far beyond the arts. Arts education has been argued to have social, motivational, and academic repercussions. But are such claims rooted in empirical evidence, or are they unsupported advocacy? The studies in this issue review systematically what is known about the power of the arts to promote learning in non-arts domains. Thus, we focus here only on the claims that have been made about the effects of arts education on cognitive, academic outcomes
In the American educational climate of today, "basic" academic skills are valued while the arts are considered a frill. Many major urban school districts have cut back on arts education in order to strengthen academic subjects. Even though most of our schools have some arts education, and even though most of our citizens say they want their children to be exposed to the arts in school, only one in four students in American schools sings, plays an instrument, or performs plays in class each week. When budgets are tight, the arts are almost always the first programs to be cut. This study
The author reviews the empirical literature testing that there is an association between instruction in music (usually school-based) and performance in reading (as measured by reading test scores or by general tests of verbal aptitude).
ABSTRACT The article discusses the research which has showed that music education enhances spatial reasoning skills. The result has suggested that the various kinds of musical instruction leads to spatial learning and the type of instruction has not been limited to any particular program component, musical style or instructional practice. The study has demonstrated that learning standard notation promotes the facilitation of the performance in the spatial-temporal tasks. The music instruction has contributed to the improvement of at least one type of spatial skill in which it is projected to
The article discusses the research which showed that the usage of drama in the classroom by the educators can promote a deeper learning in the variety of verbal fields. Drama has been considered as an effective tool to improve the accomplishment in story understanding, reading achievement, reading preparedness and writing. The result has demonstrated that the drama helps the children to master the texts they enact and to practice the new materials that are not yet enacted. The study has showed that drama instruction can serve as a creative and effective instrument for learning that exceeds
Can reading skills be enhanced by instruction in the visual arts? Arts education researchers have sometimes made this claim and have argued that the visual arts can play a strong role in the teaching of basic skills in the kindergarten and elementary school years. There are two possible mechanisms by which visual arts instruction might enhance reading ability, one cognitive, one motivational. The cognitive mechanism would involve transfer of skill. Perhaps visual arts training strengthens visual perception skills that can be deployed in reading.
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TEAM MEMBERS:
Kristin BurgerEllen WinnerUniversity of Illinois
Progress in understanding cognitive developmental change mechanisms requires methods that yield detailed data about particular changes. The microgenetic method is an approach that can yield such data. It involves (a) observations of individual children throughout the period of the change, (b) a high density of observations relative to the rate of change within that period, and (c) intensive trial-by-trial analyses intended to infer the processes that gave rise to the change. This approach can illuminate both qualitative and quantitative aspects of change, indicate the conditions under which