The Massachusetts Audubon Society will develop, pilot, and implement an evaluation framework for nature-based STEM programming that serves K-12 students visiting its network of nature centers and museums. Working with an external consultant, the society will develop the framework comprised of a logic model and theory of change for fieldtrips, and develop a toolkit of evaluation data collection methodology suitable to various child development stages. The project team will design and conduct three professional development training seminars to help Massachusetts Audubon school educators develop a working understanding of the new evaluation framework for school programs and gain the skills necessary to support protocol implementation. This project will result in the development and adoption of a universal protocol to guide the collection, management, and reporting of education program evaluation data across the 19 nature centers and museums in the Massachusetts Audubon system.
The Habitot Children's Museum will renovate its Rocketship and Mission Control exhibition to increase functionality, making it more accessible and interactive for parents, caregivers, and children. With input from the community and a professional advisory group of museum professionals, early learning specialists, space scientists and parents, the museum will refurbish, update, and improve exhibition access for children with special needs by completing previously identified universal design requirements; adding interactive components that support young children's need for open-ended, play-based experiences to build strong STEM learning foundations; and addressing adult visitors' needs to have defined roles in exhibition spaces to better engage with their children. A customized, observation-based evaluation tool will be used to measure the identified project outcomes.
The STEAM Para Todos project will transform a prominent exhibit in the Marbles Kids Museum into a vibrant space that fosters culturally relevant STEAM learning and exploration for all museum visitors, particularly the growing Hispanic, dual-language learner population in Wake County, N.C. The three-year project will involve research, testing, design, installation, and evaluation. The museum will work with the school system, STEM partners, the local arts community, and organizations engaged with the Hispanic community to develop the exhibit. Guiding the project will be a community of practice, comprised of museum professionals; researchers with expertise in STEAM education, dual language learners, and culturally responsive informal learning; partners from STEM businesses; creative arts organizations; the Wake County Public School System; and stakeholders from the exhibit's intended audience. Project partners include Wake County Public School System, Que Pasa, US2020, Visual Arts Exchange, North Carolina Society of Hispanic Professionals, and Google Fiber.
Hero Elementary is a transmedia educational initiative aimed at improving the school readiness and academic achievement in science and literacy of children grades K-2. With an emphasis on Latinx communities, English Language Learners, youth with disabilities, and children from low-income households, Hero Elementary celebrates kids and encourages them to make a difference in their own backyards and beyond by actively doing science and using their Superpowers of Science. The project embeds the expectations of K–2nd NGSS and CCSS-ELA standards into a series of activities, including interactive games, educational apps, non-fiction e-books, hands-on activities, and a digital science notebook. The activities are organized into playlists for educators and students to use in afterschool programs. Each playlist centers on a meaningful conceptual theme in K-2 science learning.
DATE:
-
TEAM MEMBERS:
Joan FreeseMomoko HayakawaBryce Becker
This is the final evaluation report from RMC Research Corp. for the PES@LTERs project. Appendix includes instruments.
RMC Research designed evaluation activities to provide formative and summative feedback to Harvard Forest and the Hubbard Brook Research Foundation (Hubbard Brook) on their plan to embed public engagement with science (PES) into the cultures and practices of Long-Term Ecological Research Sites (LTERs) in the northeastern US. The purpose of this project was to build PES mechanisms into long-term ecosystem studies that create on-going, open exchanges between scientists and
In this paper, we contend that what to teach about scientific reasoning has been bedeviled by a lack of clarity about the construct. Drawing on the insights emerging from a cognitive history of science, we argue for a conception of scientific reasoning based on six 'styles of scientific reasoning.' Each 'style' requires its own specific ontological and procedural entities, and invokes its own epistemic values and constructs. Consequently, learning science requires the development of not just content knowledge but, in addition, procedural knowledge, and epistemic knowledge. Previous attempts to
The University of Washington, the Exploratorium, the Education Development Center, Inverness Research, and the University of Colorado - Boulder have come together to form a Research+Practice (R+P) Collaboratory. The Collaboratory seeks to address and reframe the gap between research and practice in K-12 STEM education. This gap persists despite decades of work by many leading organizations, associations, and individuals. Attempts to close the gap have generally focused on creating resources and mechanisms that first explain or illustrate "what research says" and then invite educators to access and integrate findings into practice. Recently, however, attention has turned to the ways in which the medical sciences are addressing the gap between research and clinical practice through the developing field of "translational research." In medicine, the strategy has been to shift the focus from adoption to adaptation of research into practice. Implicit in the notion of adaptation is a bi-directional process of cultural exchange in which both researchers and practitioners come to understand how the knowledge products of each field can strengthen the professional activities in the other. Along these lines, the R+P Collaboratory is working with leading professional associations and STEM improvement efforts to leverage their existing knowledge and experience and to build sustainable strategies for closing the gap. Activities include:
Collecting, creating and synthesizing translational research resources to expand STEM educators' and educational leaders' access and awareness to current relevant research.
Supporting multiple opportunities for cross-sector (research and practice; education and social sciences; formal and informal) meetings to foster critical engagement and cultural exchange.
Testing, documenting and innovating new resources and mechanisms at Adaptation Sites and disseminating both products and results through the R+P Resource Center.
The R+P Collaboratory is developing an online 'Go-To' Resource Center website that houses the resources collected, created, and curated by the Collaboratory. The Resource Center also has significant 'Take-Out' features, with all materials meta-tagged so that they can be automatically uploaded, reformatted, and integrated into the existing communication and professional development mechanisms (e.g., newsletters, digests, conferences, and websites) of a dozen leading professional associations within a Professional Association Partner Network.
In light of new and emerging standards in the STEM disciplines, the Collaboratory is focusing its work on four salient and timely bodies of research: (a) STEM Practices, (b) Formative Assessment, (c) Cyberlearning, and (d) Learning as a Cross-Setting Phenomenon. Special emphasis is being placed on research and practice that focuses on the learning of children and youth from communities historically underrepresented in STEM fields.
The work of the R+P Collaboratory includes research and evaluation of its own efforts through studies aimed at answering the following questions:
How are Collaboratory resources and engagement activities accessed, experienced and leveraged by participants?
What resources, mechanisms and learning contexts support cultural exchange among STEM education researchers and practitioners?
What new kinds of practices result when research-based evidence is adapted into evidence-based practices, and how does it change learning opportunities for K-12 aged children?
How can effective strategies, mechanisms and resources of the Collaboratory be scaled and adapted to new contexts?
There is a vein of democratic idealism in the work of science museums. It is less about political democracy than epistemological democracy. As a one-time museum educator and a researcher who studies science museums, I have always thought of it in terms of an unspoken two-part motto: “see for yourself–know for yourself.” Although this strain of idealism has remained constant throughout the history of science museums, it has been interpreted differently in different eras, responding (in part) to the social upheavals of the day. In the late 1960s, for example, a new generation of self-described
This study researched whether and how affiliation with the Nanoscale Informal Science Education Network (NISE Net) led to change in informal science education organizations’ (ISEs) practices. The NISE Net provided an opportunity to look at how participation in a large but loosely-structured network of museums, science centers, educators, and scientists can influence museums to experience organizational change and adopt new practices.
By conducting qualitative case studies of a few selected partners, this research aimed to understand the conditions that facilitate or impede the influence of
Increasing demand for curricula and programming that supports computational thinking in K-2 settings motivates our research team to investigate how computational thinking can be understood, observed, and supported for this age group. This study has two phases: 1) developing definitions of computational thinking competencies, 2) identifying educational apps that can potentially promote computational thinking. For the first phase, we reviewed literatures and models that identified, defined and/or described computational thinking competencies. Using the model and literature review, we then
For the past two decades, researchers and educators have been interested in integrating engineering into K-12 learning experiences. More recently, computational thinking (CT) has gained increased attention in K-12 engineering education. Computational thinking is broader than programming and coding. Some describe computational thinking as crucial to engineering problem solving and critical to engineering habits of mind like systems thinking. However, few studies have explored how computational thinking is exhibited by children, and CT competencies for children have not been consistently defined