Over the course of six years (2016–2022), History Colorado, three Ute Tribes, and archaeology and ethnobotany partners undertook an ambitious, highly collaborative project, called Ute STEM, to explore new ways of looking at the field of Science, Technology, Engineering, and Math (STEM) learning. This final report goes into details about the project and lessons learned.
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TEAM MEMBERS:
Elizabeth CookSheila GoffKate LivingstonShannon Voirol
PocketMacro is a mobile app designed by the Learning Media Design Center at Carnegie Mellon University in collaboration with Stroud Water Research Center, Carnegie Museum of Natural History and Clemson University, and stakeholder input. The PocketMacro app aims to help users better identify benthic macroinvertebrates commonly found in streams and other waterways. Rockman et al Cooperative (REA), an independent educational evaluation group, designed a summative study to explore the effectiveness of the app in supporting users’ aquatic macroinvertebrate identification. The purpose of the
Informal physics programs are understudied partly due to the broad spectrum of program structures and wide variety of activities. Moreover, the program facilitators hold diverse positions - faculty members at universities, staff members of national labs, and student leaders. In this study, we conduct an in-depth analysis of surveys and interviews from a subset of a national data set. Our goal is to develop and validate a practitioner-focused model of the key organizational components of informal physics programs. Based on the model of The Physics Teacher Education Program Analysis (PTEPA), we
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TEAM MEMBERS:
Dena IzadiBryan StanleyLily Boydclaudia fracchiollaKathleen Hinko
resourceresearchProfessional Development, Conferences, and Networks
Informal physics programs bring physicists together with youth and adults from local communities to engage with physics content outside of classroom settings. These public engagement or “physics outreach” programs are a significant endeavor of the physics community; however, we lack a systemic documentation of these efforts, which makes it difficult to situate physics education research on individual informal physics programs into a broader narrative. Additionally, informal physics programs have many formats and vary in terms of their audience, content, activities, and resources. It is
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TEAM MEMBERS:
Dena IzadiJulia WillisonNoah Finkelsteinclaudia fracchiollaKathleen Hinko
resourceresearchProfessional Development, Conferences, and Networks
In this paper, we take an in-depth look at the physics faculty and student volunteers, which we will refer to as the program personnel, involved in informal physics programs to better understand their roles and responsibilities, their interactions with audiences, and their connectedness with content and activities. Understanding the complexities between programs, personnel, and audiences allows us to look for areas to improve informal physics programs in being inclusive, in being equitable and accessible, in supporting physics students who participate, and in connecting more strongly to the
This document categorizes several strategies for fostering imaginative thinking, emergent from our review of literature. Strategies are organized by high-level categories, sub-categories, and specific actions educators or experience designers can take to foster imagination in a range of contexts. The resource also includes relevant citations for further exploration of these strategies. This resource reflects results from a comprehensive review of 137 pieces of literature addressing the intersections of imagination and STEM.
The NSF-funded project titled An Informal Learning Model of Genetic and Genomic Education for Adult Bilingual Learners, was led by Joanne Sandberg, PhD. The project included three phases:
Phase I: Investigation of knowledge and beliefs about transmission of traits, genetic and genomic concepts, gene-environment interactions, and environmental exposures in Latinx adults born in Mexico or Central America and who have limited literacy.
Phase II: Development of two educational interventions in Spanish that address:
Information about environmental exposures that can be detrimental to
This guidebook will help you plan your action project. The initial brainstorm pages will help you consider where to start, and the Action Project Framework will navigate you through steps to get to your destination: the completion of your project!
This project focuses on environmental health literacy and will explore the extent to which diverse rural and urban youth in an out-of-school STEM enrichment program exhibit gains in environmental health literacy while engaged in learning and teaching others about community resilience in the face of changing climates. Science centers and museums provide unique opportunities for youth to learn about resilience, because they bring community members together to examine the ways that current science influences local decisions. In this project, teams of participating youth will progress through four learning modules that explore the impacts of changing climates on local communities, the local vulnerabilities and risks associated with those changes, possible mitigation and adaptation strategies, and building capacities for communities to become climate resilient. After completion of these modules, participating youth will conduct a resilience-focused action project. Participants will be encouraged to engage peers, families, friends, and other community stakeholders in the design and implementation of their projects, and they will gain experience in accessing local climate and weather data, and in sharing their findings through relevant web portals. Participants will also use various sensors and web-based tools to collect their own data.
This study is guided by three research questions: 1) To what extent do youth develop knowledge, skills, and self- efficacy for developing community resilience (taken together, environmental health literacy in the context of resilience) through participation in museum-led, resilience-focused programming? 2) What program features and settings foster these science learning outcomes? And 3) How does environmental health literacy differ among rural and urban youth, and what do any differences imply for project replication? Over a two- year period, the project will proceed in six stages: a) Materials Development during the first year, b) Recruitment and selection of youth participants, c) Summer institute (six days), d) Workshops and field experiences during the school year following the summer institute, e) Locally relevant action projects, and f) End- of-program summit (one day). In pursuing answers to the research questions, a variety of data sources will be used, including transcripts from youth focus groups and educator interviews, brief researcher reflections of each focus group and interview, and a survey of resilience- related knowledge. Quantitative data sources will include a demographic survey and responses to a self-efficacy instrument for adolescents. The project will directly engage 32 youth, together with one parent or guardian per youth. The study will explore the experiences of rural and urban youth of high school age engaged in interactive, parallel programming to enable the project team to compare and contrast changes in environmental health literacy between rural and urban participants. It is anticipated that this research will advance knowledge of how engagement of diverse youth in informal learning environments influences understanding of resilience and development of environmental health literacy, and it will provide insights into the role of partnerships between research universities and informal science centers in focusing on community resilience.