This proposed four-year effort envisions a new approach to promoting science literacy through science journalism as a subject of study. It is premised on a critical set of assumptions: (a) Most citizens have the need to interpret scientific information found in popular media (e.g., newspapers, magazines, online resources, science-related television programs); (b) science journalism provides reliable, well-researched science information; (c) authentic science writing provides motivation to learn; and (d) standards and rubrics specifically developed for evaluating students' science-related expository text do not exist. Thus, the project approaches science journalism as a means to assist students to investigate and coherently write about contemporary science and to learn to base assertions and descriptions on reliable, publicly available sources. To this end, the project aims to develop, pilot, and evaluate a model of instruction that focuses on the following aspects: (a) Identifying questions of both personal and public interest; (b) evaluating contemporary science-related issues; (c) making available highly regarded sources of information as exemplars (in-print, online, interviews); (d) synthesizing information; (e) assessing information based on fact-checking using the five Ws (who, what, where, when, and why); and (f) coherently explaining claims and evidence. A hypothesis and a set of research questions guide this effort. The hypothesis is the following: If participating students successfully attain the fundamental elements of the proposed model, then they will become more literate and better critical consumers and producers of scientific information. The main guiding research question of the proposed activity is the following: Does the teaching of science journalism using an apprenticeship model, reliable data sources, and science-specific writing standards improve high school students' understanding of science-related public literacy? Secondary questions include (a) Is the teaching of science journalism an efficacious, replicable and sustainable model for improving science literacy?; (b) How useful are science-related standards and rubrics for scaffolding and evaluating students' science writing and science literacy?; and (c) What is the nature of the engagement in science that this apprenticeship invites?
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TEAM MEMBERS:
Alan NewmanJoseph PolmanE. Wendy SaulCathy FarrarAlan Newman
This paper explores how participating in a program spanning an informal science institution and multiple school sites engaged youth with science in a different way. In particular, teens in the program selected and researched science topics of personal interest, and then authored, revised, and published science news stories about those topics in an authentic publication venue with an outside editor. Through five case studies analyzed according to a sociocultural framework for engagement understood as involving actions, interests and identifications, the authors describe how the news story
The University of Arkansas Center for Math and Science Education (CMASE), one of eleven mathematics and science centers on university and college campuses around the state, provides quality resources and materials to the home, private and public education community. The Arkansas NASA Educator Resource Center, located within CMASE, is the state's dissemination point for education materials provided by NASA. Resources and school/classroom presentations are free of charge. The main objectives of both centers are to provide: (1) K-16 education outreach to the home, private and public Northwest Arkansas education community; (2) quality professional development for pre-service and in-service teachers at local, regional, state and national levels; (3) access points for dissemination of educational materials, resources and information; and (4) links to common education allies throughout the state and nation.
The National Science Foundation and other funding agencies are increasingly requiring broader impacts in grant applications to encourage US scientists to contribute to science education and society. Concurrently, national science education standards are using more inquiry-based learning (IBL) to increase students’ capacity for abstract, conceptual thinking applicable to real-world problems. Scientists are particularly well suited to engage in broader impacts via science inquiry outreach, because scientific research is inherently an inquiry-based process. We provide a practical guide to help
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TEAM MEMBERS:
Lisa KomoroskeSarah HameedAmber SzoboszlaiAmanda NewsomSusan Williams
This annual report presents an overview of Saint Louis Science Center audience data gathered through a variety of evaluation studies conducted during 2013. This report includes information on the Science Center's general public audience demographics and visitation patterns, gives an overview of visitors' comments about their Science Center experience, summarizes major trends observed in the Science Center's tool for tracking educational programs, and presents highlights from a front-end evaluation of a new agriculture exhibit and a summative evaluation of the the Youth Exploring Science
Rockman et al (REA), in partnership with Marti Louw and the University of Pittsburgh Center for Learning in Out-of-School Environments (UPCLOSE) conducted a summative evaluation in Summer 2014 of an aquatic macroinvertebrate digital teaching collection (macroinvertebrates.org) containing voucher specimens from the Carnegie Museum of Natural History (CMNH) in Pittsburgh, PA. The digital teaching collection groups three orders of aquatic insects (stoneflies, caddisflies, and mayflies), and users can click on a specific insect and get information on its genus, habitat, behaviors, size, abundance
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University of Pittsburgh Center for Learning in Out-of-School-Environments (UPCLOSE)Camellia Sanford-Dolly
Connected learning is an educational approach designed to make learning relevant to students, creating a deeper form of learning and understanding that will help students become life-long learners who will grow and thrive in school, work and life. Afterschool programs have long been implementing this approach that ties together students interests, peer networks and academic pursuits. This report explores the benefits of using a connected learning approach, the variety of ways afterschool programs are offering connected learning opportunities to engage students in learning, and shares ideas on
The "places" of learners and practitioners of science from communities of color are increasingly a focus in analyses of science learning and education in the U.S. Typically, these places are defined through the discourse of equity that focuses on representation and the goal of creating learning environments that will allow students of color to perform as well as their white peers. More recently, this focus has shifted from performance to actual knowledge of and the ability to think critically about science, technology, engineering, and mathematics (STEM) content. Although critical thinking and
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TEAM MEMBERS:
Megan BangDouglas MedinGregory Cajete
There can be a mistaken impression that the new vision for K-12 science education is only relevant to classroom science instruction. But youth frequently engage in powerful science and engineering activities that take place after or outside-of-school. They learn STEM content, engage in STEM practices, and develop an understanding of how STEM is used in the world. To capitalize on those assets, educators and other stakeholders should learn about, leverage, and broker connections for youth across the STEM learning experiences available in and out of school.
The Franklin Institute (TFI) engaged Insight Evaluation Services (IES) to conduct a review of TFI museum/community partnership programs from 1993 through 2014 for the purpose of identifying "lessons learned", that is the successes and challenges of working together to achieve a common goal. IES reviewed over 40 research studies and evaluation reports for fourteen programs in which TFI was a partner in a long-term collaborative relationship with one or more community-based organizations, informal learning organizations, and/or other education-oriented public service institutions, including: The
This project continues the development, testing, and use of a series of web-based computer simulations for improving the teaching and learning of physics. It expands the number of simulations in physics, creates new simulations addressing introductory chemistry, creates simulations addressing the conceptual understanding of equations in solving science problems, and further refines some existing simulations. It increases, by approximately 35, the 35 online interactive simulations that have been developed for teaching physics. The project produces and widely disseminates on-line supporting materials for use in undergraduate and high school science courses. The supporting materials include: guided-discovery, tutorial worksheets; a list of learning goals; materials to support in-lecture, homework, and laboratory use; assessment instruments; and other user-contributed materials. The simulations being introduced and their effectiveness are being evaluated in at least eight additional courses in physics and chemistry at the University of Colorado and a diverse set of partner institutions. The materials are being extensively tested to ensure that they are easy to use and effective at promoting deep conceptual understanding and positive attitudes about science and technology.
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TEAM MEMBERS:
Carl WiemanNoah FinkelsteinKatherine Perkins
This project develops an interdisciplinary and transformative in- and out of-school science education and technology program that engages high school aged youth and their teachers in 1) the production of food using hydroponics, and 2) the use of green energy technologies (solar, and wind) to power hydroponic systems. This distinctive program integrates food production, a novel model of parental outreach, a focus on green career development, and an authentic reason (growing their own produce for selling at a market) for learning how and why to use alternative energy technologies. The project creates an approach to sustainability in which students not only give back to their community, but are in a position to provide a continuous revenue stream to the school in order to operate their indoor urban garden indefinitely. The partnership with the Boston Youth Environmental Network provides youth opportunities for summer internships with green energy companies. The project builds upon a learning progressions model in which youth gradually learn about complex scientific systems and economic principles throughout their years in the program. Rather than a onetime experience, youth are engaged in a long-term experience building their knowledge and skills regarding science, economics, and college preparedness. This project has the potential to impact thousands of students informally and over 2000 students (in classrooms) directly with a minimum of 60 students receiving focused and in depth learning experiences during the summer and on weekends during the school year. With the passage of laws encouraging local schools to partner with local farms, the need for locally grown produce will increase; in that context, the program brings the farm to the school in a way that allows food to be grown year round. Thus, a model is developed that any school or informal learning center could adopt to grow their own food while simultaneously creating a living and learning laboratory for youth in their own program.
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TEAM MEMBERS:
George BarnettEric StraussDavid BlusteinCatherine WongElizabeth Bagnani