This project is developing and implementing a strong environmental literacy and science education program to accompany NOAA's Science on a Sphere (SOS) at The National Maritime Center's Nauticus museum. The program will use the SOS as a focal point to support learning about global oceanic and atmospheric circulations and their effect on local environments. The team is creating real-time global displays of environmental phenomena for the SOS from the expansive University of Wisconsin environmental satellite database. Computer visualization systems and user-driven interactive displays will allow viewers to move from global scale to regional and local scale in order to explore specific features of the phenomena being visualized and to understand them in greater detail. The displays will be integrated with high quality education materials that are aligned with national standards and specifically address the NOAA Education Strategic Plan. The teaming of the University of Wisconsin, Hampton University, and the National Maritime Center offers the opportunity to expose students from ethnic minority groups to various NOAA career paths and help produce graduates with solid technical backgrounds.
This project aims to develop and implement residential and non-residential science camp and summer camp programs and related activities to over 1500 youth and teachers from 8 elementary and middle schools. NOAA's Multicultural Education for Resource Issues Threatening Oceans (MERITO) program will serve as a key outreach mechanism to reach underserved youth and their families. The proposed project will utilize existing ocean educational materials, including those developed by NOAA, in experiential learning programs for youth through Camp SEA (Science, Education, Adventure) Lab. The two major goals of the project are: (1) to develop and implement marine-oriented outdoor science and summer camps in close collaboration with the Monterey Bay National Marine Sanctuary, resulting in an effective model for dissemination of the Ocean Literacy Essential Principles and Fundamental Concepts to large numbers of youth and their teachers; and 2) to develop a model and a feasibility plan to implement the program across a broader geographical area, e.g. through other National Marine Sanctuaries.
Knowledge building, as elaborated in this chapter, represents an attempt to refashion education in a fundamental way, so that it becomes a coherent effort to initiate students into a knowledge creating culture. Accordingly, it involves students not only developing knowledge-building competencies but also coming to see themselves and their work as part of the civilization-wide effort to advance knowledge frontiers. In this context, the Internet becomes more than a desktop library and a rapid mail-delivery system. It becomes the first realistic means for students to connect with civilization
Field trips are a popular method for introducing students to concepts, ideas, and experiences that cannot be provided in a classroom environment. This is particularly true for trans-disciplinary areas of teaching and learning, such as science or environmental education. While field trips are generally viewed by educators as beneficial to teaching and learning, and by students as a cherished alternative to classroom instructions, educational research paints a more complex picture. At a time when school systems demand proof of the educational value of field trips, large gaps oftentimes exist
Substantial evidence exists to indicate that outdoor science education (OSE)—properly conceived, adequately planned, well taught, and effectively followed up—offers learners opportunities to develop their knowledge and skills in ways that add value to their everyday experiences in the classroom. Specifically, OSE can have a positive impact on long-term memory due to the memorable nature of the setting. Effective OSE, and residential experience in particular, can lead to individual growth and improvements in students’ social skills. More importantly, there can be reinforcement between 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
Interest is a powerful motivator; nonetheless, science educators often lack the necessary information to make use of the power of student-specific interests in the reform process of science curricula. This study suggests a novel methodology, which might be helpful in identifying such interests--using children's self-generated questions as an indication of their scientific interests. In this research, children's interests were measured by analyzing 1555 science-related questions submitted to an international Ask-A-Scientist Internet site. The analysis indicated that the popularity of certain
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TEAM MEMBERS:
Ayelet Baram-TsabariRicky SethiLynn Bry
Young adolescents who expected to have a career in science were more likely to graduate from college with a science degree, emphasizing the importance of early encouragement.
In 2006, Lucy Friedman of The After School Corporation and Jane Quinn of the Children’s Aid Society, both founding members of CSAS, published a commentary piece in Education Week entitled “Science by Stealth.”
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TEAM MEMBERS:
The Coalition for Science After SchoolLucy FriedmanJane Quinn
This report presents the findings of a qualitative study that asked 38 secondary science teachers, ‘How can natural history museums effectively support science teaching and learning?’ A partnership of four natural history museums across England, teachers from their local areas and a university education department were involved. The museums work in partnership to support school science at 11–18. In-depth focus groups held at the museums and questionnaires were used.
This paper will review literature on learning science in K-8 classrooms by asking and answering three major questions: Who learns science in classrooms? How is science learned in classrooms? What science is learned in classrooms? These questions will be addressed from a sociocultural perspective, which means that the unit of analysis (both theoretically and methodologically) should include both the individual and the social world. Thus, the proposed connections between causes and outcomes must include contextual as well as psychological factors.
This article describes how after-school programs can nurture young scientists and boost the country's scientific literacy. It makes a case for integrating science into high-quality afterschool programs.
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TEAM MEMBERS:
The After-School CorporationLucy FriedmanJane Quinn