Following a 2011 report by the National Research Council (NRC) on successful K-12 education in science, technology, engineering, and mathematics (STEM), Congress asked the National Science Foundation to identify methods for tracking progress toward the report's recommendations. In response, the NRC convened the Committee on an Evaluation Framework for Successful K-12 STEM Education to take on this assignment. The committee developed 14 indicators linked to the 2011 report's recommendations. By providing a focused set of key indicators related to students' access to quality learning, educator's
DATE:
TEAM MEMBERS:
National Research Council
resourceresearchProfessional Development, Conferences, and Networks
This guide provides effective practices for anyone — university faculty member, K–12 teacher, or administrator — who wants to create a project that partners science, technology, engineering, and mathematics (STEM) graduate students (Fellows) with K–12 teachers on a sustained basis. These recommendations come from the community of faculty members, graduate students, K–12 teachers, program managers, and evaluators who participated in the U.S. National Science Foundation (NSF) Graduate STEM Fellows in K–12 Education (GK–12) Program from its start in 1999 through 2012. The guide was written to
Historically, most of the focus of science education has been on pre-college and college level schooling. Although some of the public's interest and knowledge about science is unquestionably shaped by compulsory schooling, given that the average adult spends only a fraction of their life participating in some kind of formal schooling, we argue that the contribution of school-based science learning to the long-term public understanding of science is limited, particularly for the majority of Americans who do not go on to post-secondary schooling. This article shows that the majority of the
In October 2012, the National Science Foundation (NSF) released a new version of the Grant Proposal Guide (GPG) that included significant changes to the review elements and considerations underlying the Merit Review Criteria. This was the first major revision of the Criteria in 15 years. Of particular note were significant changes to the criteria used by panelists, reviewers, and program officers to evaluate a proposal’s broader impacts. To help inform Florida ocean scientists of these changes in anticipation of proposal submission deadlines in early 2013, the Center for Ocean Sciences
This volume explores the integration of recent research on everyday, classroom, and professional scientific thinking. It brings together an international group of researchers to present core findings from each context; discuss connections between contexts, and explore structures; technologies, and environments to facilitate the development and practice of scientific thinking. The chapters focus on: * situations from young children visiting museums, * middle-school students collaborating in classrooms, * undergraduates learning about research methods, and * professional scientists engaged in
Children often learn new problem-solving strategies by observing examples of other people's problem-solving. When children learn a new strategy through observation and also explain the new strategy to themselves, they generalize the strategy more widely than children who learn a new strategy but do not explain. We tested three hypothesized mechanisms through which explanations might facilitate strategy generalization: more accurate recall of the new strategy's procedures; increased selection of the new strategy over competing strategies; or more effective management of the new strategy's goal
Two studies examined how parent explanation changes what children learn from everyday shared scientific thinking. In Study 1, children between ages 3- and 8-years-old explored a novel task solo or with parents. Analyses of children's performance on a subsequent posttest compared three groups: children exploring with parents who spontaneously explained to them; children exploring with parents who did not explain; and children exploring solo. Children whose parents had explained were most likely to have a conceptual as opposed to procedural understanding of the task. Study 2 examined the causal
The aim of the work reported here has been to give an overview of the support that the informal sector provides for learning and engagement with science. In addressing this goal, we have taken the view that engagement with science and the learning of science occur both within and without schools. What is of interest is not who provides the experience or where it is provided but the nature and diversity of opportunities for science learning and engagement that are offered in contemporary UK society. Thus in approaching the work we have taken a systems perspective and looked at informal
In the spring of 1999, the Board of the National Association of Research in Science Teaching (NARST) established an Informal Science Education Ad Hoc committee, co-chaired by Lynn Dierking and John Falk. The Committee's task was to focus on the organization's positioning in regard to out-of-school science education. After 2 years of work, the committee composed a policy statement, included below, that was presented to, and accepted by, the NARST board. The policy statement defines this arena of research, describes a variety of out-of-school environments in which science learning occurs
There is no single right way to learn things, and no single place or even moment in which we learn. All learning happens continuously, from many different sources, and in many different ways. There are three main educational sectors, the formal education sector of schools and universities, the workplace, and the free-choice learning sector. Of the three, the most frequently over-looked is the free-choice learning sector. The free-choice learning sector includes museums, television, radio, the Internet, magazines, newspapers, books, parks, community organizations of all types: youth, adult
DATE:
TEAM MEMBERS:
Institute for Learning InnovationJohn H Falk
Museums invest considerable resources in promoting and supporting elementary-school field trips, but remain skeptical about their educational value. Recent cognitive psychology and neuroscience research require a reappraisal of how and what to assess relative to school-field-trip learning. One hundred and twenty-eight subjects were interviewed about their recollections of school field trips taken during the early years of their school education: 34 fourth-grade students, 48 eighth-grade students, and 46 adults composed the group. Overall, 96% of all subjects could recall a school field trip
Each school year, millions of children participate in organized field trips to museums, zoos, aquaria, and nature centers. Naturally, school groups represent a significant percentage, if not an outright majority, of visitors to such informal educational institutions. Educators at these institutions must often direct the greatest proportion of their time and effort towards educational programming for the streams of visiting school groups. Understandably, many informal educators have a strong interest in evaluating the impact of their efforts directed towards young visitors. Museum education