ECHO, Leahy Center for Lake Champlain will increase its capacity to serve rural schools through programming opportunities under its STEM in Motion 2.0 program. In partnership with rural schools, they will conduct two year-long teacher institutes blending in-person and virtual professional development. They plan to develop a total of 270 in-person and virtual classroom STEM programs and produce 18 classroom curriculum kits and standard-activity aligned guides. As a result of STEM in Motion 2.0’s activities, the museum anticipate that 54 teachers will have additional capacity to deliver high-quality STEM learning experiences to K–5th grade students in underserved, rural communities.
The Harvard Museums of Science and Culture will improve the ability of middle school teachers to use museum-based digital resources to support classroom instruction aligned with state and national science standards. Working with advisory teachers from five collaborating school districts, the museum will co-create classroom activities, based on digital resources from its collections, along with associated teacher professional development programs at three sites across urban and rural Massachusetts. The project will provide schools with access to classroom-ready resources that successfully support student learning. Teachers will learn how to use these materials, integrate them into their teaching, and enhance their skills to teach science content and practice. External evaluators will assess the project's effectiveness by measuring teacher implementation of the digital resources in the classroom, requests for information and assistance, and changes in teachers' confidence and comfort levels.
This award is funded in whole or in part under the American Rescue Plan Act of 2021 (Public Law 117-2).
Despite the rich scientific evidence of adaptations and their evolutionary basis, there are concerning public misconceptions about evolution, processes of natural selection, and adaptations in the biodiverse world. Such misconceptions begin early. Younger elementary school children are often resistant to the idea that one “kind” of animal could descend from a completely different kind of animal, and they see features as having always existed. Other misconceptions lead to an inaccurate belief that changes in individual organisms acquired in a lifetime are passed directly on to offspring or that entire populations transform as a whole. These cognitive biases and "intuitive” misunderstandings can persist into adulthood. This Innovations in Development project will counter that narrative through an informal science project focusing on the blue whale one of nature’s most spectacular stories of adaptation. It is a species that lives life at extremes: a long-distance migrator, a deep diver, an extravagant eater, the largest animal to ever exist. With its awe-inspiring size and rich mosaic of anatomical, physiological, and behavioral specializations, it serves as a bridge to an enriched understanding of universal concepts in elementary biology and can begin to dispel the deeply rooted misconceptions. The project deliverables include a giant screen film documenting the field work of research scientists studying the blue whales in the Indian Ocean and Gulf of Mexico; multi-platform educational modules and programs that will build on the blue whale content from the film for use in science center programs and rural libraries; and professional development webinars that will offer content utilization and presentation skills for ISE facilitators. Project partners include California Science Center, STAR Library Education Network, HHMI Tangled Bank Studios and SK Films.
The external evaluation studies will gather data from 20 participating rural libraries and 6 science museums. A formative evaluation of the film will be conducted in a giant screen theater setting with 75 families. After viewing a fine-cut version of the film they will complete age-appropriate post-viewing surveys on the film’s engagement, storytelling, content appeal and clarity, and learning value in communicating key science concepts. An external summative evaluation will include three studies. Study 1 will assess the implementation of the project at the 26 organizations, addressing the question: To what extent is the project implemented as envisioned in the libraries and science center settings? Baseline information will be collected, and later partners will complete post-grant surveys to report on their actual implementation of the project elements. In addition, the study will examine outcomes relating to professional development. Study 2 will be an evaluation of the film as experienced by 400 youth and parents in science centers and examining the question: To what extent does experiencing the film engage youth and parents and affect their interest, curiosity, and knowledge of blue whales, adaptations, and the scientific process? Study 3 will examine: To what extent and how does experiencing an educational module (virtual field trips, hands on activities, augmented reality) affect youth and parents’ interest, curiosity, and knowledge of adaptations and scientific process?
This guide compiles lessons learned by seven Portal to the Public Network (PoPNet) sites as well as remaining challenges and recommendations for organizations planning similar efforts in the future. PoPNet sites used the Portal to the Public Guiding Framework to build relationships with local scientists, prepare them for public engagement using Portal to the Public training materials, and feature them at public programs.
Face-to-face conversations between scientists and public audiences in an informal learning environment provide a valuable opportunity to support public engagement with scientific research. These types of experiences have significant benefits for members of the public and for scientists. For public audiences, interacting face-to-face with a scientist can expand awareness of the range of careers in science, spark new questions about scientific topics, and increase interest in learning more about the scientist’s topic (Tisdal, 2011; Ong, 2014). Scientists, too, are positively impacted by this
The employment demands in STEM fields grew twice as fast as employment in non-STEM fields in the last decade, making it a matter of national importance to educate the next generation about science, engineering and the scientific process. The need to educate students about STEM is particularly pronounced in low-income, rural communities where: i) students may perceive that STEM learning has little relevance to their lives; ii) there are little, if any, STEM-related resources and infrastructure available at their schools or in their immediate areas; and iii) STEM teachers, usually one per school, often teach out of their area expertise, and lack a network from which they can learn and with which they can share experiences. Through the proposed project, middle school teachers in low-income, rural communities will partner with Dartmouth faculty and graduate students and professional science educators at the Montshire Museum of Science to develop sustainable STEM curricular units for their schools. These crosscutting units will include a series of hands-on, investigative, active learning, and standards-aligned lessons based in part on engineering design principles that may be used annually for the betterment of student learning. Once developed and tested in a classroom setting in our four pilot schools, the units will be made available to other partner schools in NH and VT and finally to any school wishing to adopt them. In addition, A STEM rural educator network, through which crosscutting units may be disseminated and teachers may share and support each other, will be created to enhance the teachers’ ability to network, seek advice, share information, etc.
This poster was presented at the 2019 AISL PI Meeting, and describes the the ongoing research questions and goals of the Ute STEM Project, which explores the integration of the traditional ecological knowledge (TEK) of the Ute Indians of Colorado and Utah and Western science, technology, engineering and math (STEM).
Abstract: We aim to disrupt the multigenerational cycle of poverty in our rural indigenous (18% Native American and 82% Hispanic) community by training our successful college students to serve as role models in our schools. Poverty has led to low educational aspirations and expectations that plague our entire community. As such, its disruption requires a collective effort from our entire community. Our Collective unites two local public colleges, 3 school systems, 2 libraries, 1 museum, 1 national laboratory and four local organizations devoted to youth development. Together we will focus on raising aspirations and expectations in STEM (Science, Technology, Engineering and Mathematics) topics, for STEM deficiencies among 9th graders place them at risk of dropping out while STEM deficiencies among 11th and 12th graders preclude them from pursuing STEM majors in college and therefore from pursuing well paid STEM careers. We will accomplish this by training, placing, supporting, and assessing the impact of, an indigenous STEM mentor corps of successful undergraduate role models. By changing STEM aspirations and expectations while heightening their own sense of self-efficacy, we expect this corps to replenish itself and so permanently increase the flow of the state's indigenous populations into STEM majors and careers in line with NSF's mission to promote the progress of science while advancing the national health, prosperity and welfare.
Our broader goal is to focus the talents and energies of a diverse collective of community stakeholders on the empowerment of its local college population to address and solve a STEM disparity that bears directly on the community's well-being in a fashion that is generalizable to other marginalized communities. The scope of our project is defined by six tightly coupled new programs: three bringing indigenous STEM mentors to students, one training mentors, one training mentees to value and grow their network of mentors, and one training teachers to partner with us in STEM. The intellectual merit of our project lies not only in its assertion that authentic STEM mentors will exert an outsize influence in their communities while increasing their own sense of self-efficacy, but in the creation and careful application of instruments that assess the factors that determine teens' attitudes, career interests, and behaviors toward a STEM future; and mentors' sense of self development and progress through STEM programs. More precisely, evaluation of the programs has the potential to clarify two important questions about the role of college-age mentors in schools: (1) To what degree is the protege's academic performance and perceived scholastic competence mediated by the mentor's impact on (a) the quality of the protege's parental relationship and (b) the social capital of the allied classroom teacher; (2) To what degree does the quality of the student mentor's relationships with faculty and peers mediate the impact of her serving as mentor on her self-efficacy, academic performance, and leadership skills?
This project had three objectives to build knowledge with respect to advancing Informal STEM Education:
Plan, prototype, fabricate, and document a game-linked design-and-play STEM exhibit for multi-generational adult-child interaction utilizing an iterative exhibit design approach based on research and best practices in the field;
Develop and disseminate resources and models for collaborative play-based exhibits to the informal STEM learning community of practice of small and mid-size museums including an interactive, tangible tabletop design-and-play game and a related tablet-based game app for skateboarding science and technology design practice;
Conduct research on linkages between adult-child interactions and game-connected play with models in informal STEM learning environments.
Linked to these objectives were three project goals:
Develop tools to enable children ages 5-8 to collaboratively refine and test their own theories about motion by exploring fundamental science concepts in linked game and physical-object design challenge which integrates science (Newton’s Laws of Motion) with engineering (iterative design and testing), technology (computational models), and mathematics (predictions and comparisons of speed, distance, and height). [Linked to Objectives 1 & 3]
Advance the informal STEM education field’s understanding of design frameworks that integrate game environments and physical exhibit elements using tangibles and playful computational modeling and build upon the “Dimensions of Success” established STEM evaluation models. [Linked to Objectives 1 & 2]
Examine methods to strengthen collaborative learning within diverse families through opportunities to engage in STEM problem-based inquiry and examine how advance training for parents influences the extent of STEM content in conversations and the quality of interactions between caregivers and children in the museum setting. [Linked to Objectives 1 & 3]
The exhibit designed and created as a result of this grant project integrates skateboarding and STEM in an engaging context for youth ages 5 to 8 to learn about Newton’s Laws of Motion and connect traditionally underserved youth from rural and minority areas through comprehensive outreach. The exhibit design process drew upon research in the learning sciences and game design, science inquiry and exhibit design, and child development scholarship on engagement and interaction in adult-child dyads.
Overall, the project "Understanding Physics through Collaborative Design and Play: Integrating Skateboarding with STEM in a Digital and Physical Game-Based Children’s Museum Exhibit" accomplished three primary goals. First, we planned, prototyped, fabricated, and evaluated a game-linked design-and-play STEM gallery presented as a skatepark with related exhibits for adult-child interaction in a Children's Museum.
Second, we engaged in a range of community outreach and engagement activities for children traditionally underserved in Museums. We developed and disseminated resources for children to learn about the physics of the skatepark exhibit without visiting the Museum physically. For example, balance board activities were made portable, the skatepark video game was produced in app and web access formats, and ramps were created from block sets brought to off-site locations.
Third, we conducted a range of research to better understand adult-child interactions in the skatepark exhibit in the Children's Museum and to explore learning of physics concepts during physical and digital play. Our research findings collectively provide a new model for Children's Museum exhibit developers and the informal STEM education community to intentionally design, evaluate, and revise exhibit set-up, materials, and outcomes using a tool called "Dimensions of Success (DOS) for Children's Museum Exhibits." Research also produced a tool for monitoring the movement of children and families in Museum exhibit space, including time on task with exhibits, group constellation, transition time, and time in gallery. Several studies about adult-child interactions during digital STEM and traditional pretend play in the Museum produced findings about social positioning, interaction style, role, and affect during play.
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TEAM MEMBERS:
Deb DunkhaseKristen MissallBenjamin DeVane
Currently, many museums present histories of science and technology, but very few are integrating scientific activity--observation, measurement, experimentation-with the time- and place-specific narratives that characterize history-learning experiences. For the Prairie Science project, Conner Prairie is combining proven science center-style activities, developed by the Science Museum of Minnesota, with family-engagement strategies developed through extensive research and testing with audiences in historical settings. The goal of this integration is to create guest experiences that are rich in both STEM and historical content and encourage family learning. One key deliverable of this project is the Create.Connect gallery, which is currently installed at Conner Prairie. Create.Connect allows the project team to evaluate and research hands-on activities, facilitation strategies and historic settings to understand how these elements combine to encourage family conversations and learning around historical narratives and STEM content. For example, in one exhibit area families can experiment with creating their own efficient wind turbine designs while learning about the innovations of the Flint & Walling windmill manufacturing company from Indiana. The activity is facilitated by a historic interpreter portraying a windmill salesman from 1900. The interpreter not only guides the family though the process of scientific inquiry, but shares his historic perspective on wind power as well. Two other exhibit areas invite hands-on exploration of electrical circuits and forces in motion as they connect to stories from Indiana history. Evaluation and research findings from the Create.Connect exhibit will be used to develop a model that can guide other history institutions that want to incorporate STEM content and thinking into their exhibits and interpretation. By partnering with the Science Museum of Minnesota, we will combine the experience of science center professionals and history museum professionals to find the best practices for incorporating science activities into historic settings. To ensure that this dissemination model is informed from many perspectives, Conner Prairie has invited the participation of four history museums: The Museum of America and the Sea, Mystic, Connecticut; the California State Railroad Museum, Sacramento, California; the Wabash County Historical Society, Wabash, Indiana; and the Oliver H. Kelley Farm, Elk River, Minnesota. Each of the four participants will install history-STEM exhibit components which will be connected to location-specific historic narratives. Drawing on the staff experience and talents of participant museums, this project will develop realistic solutions to an array of anticipated barriers. These issues and the resulting approaches will become part of a stronger, more adaptable dissemination model that will support history museums in creating STEM-based guest experiences.
Our Instrumented Earth: Understanding Global Systems and Local Impacts through the El Nino Story centers on a new production displayed on Science on a Sphere® (SOS), and informal educational program elements to engage learners in the power and purpose of NASA data-gathering tools. Audiences include over two million visitors to partner institutions, serving both urban and rural constituencies that rank among the most diverse in the nation. The Aquarium has partnered with the Oregon Museum of Science and Industry (OMSI) and NASA Goddard Space Center to implement elements of the program, as well as NASA scientists and experts to develop content. There are two main project goals for Our Instrumented Earth: to create a NASA-informed public by creating an SOS production which highlights space technologies and other instruments monitoring Earth; and to enhance the STEM capacity of underserved teachers, parents, and students through teacher professional development and outreach events. Major project deliverables for Our Instrumented Earth include: a brand new SOS film production, an adapted program for the Magic Planet spherical display platform to serve rural communities, professional development workshop for formal teachers, and NASA Night outreach events at the Aquarium.
This Pathways Project connects rural, underserved youth and families in Eastern Washington and Northern Idaho to STEM concepts important in sustainable building design. The project is a collaboration of the Palouse Discovery Science Center (Pullman, WA), Washington State University and University of Idaho, working in partnership with rural community organizations and businesses. The deliverables include: 1) interactive exhibit prototype activities, 2) a team cooperative learning problem-solving challenge, and (3) take-home materials to encourage participants to use what they have learned to investigate ways to make their homes more energy-efficient and sustainable. The project introduces youth and families to the traditionally difficult physics concept of thermal energy, particularly as it relates to sustainable building design. Participants explore how building materials and their properties can be used to control all three types of heat transfer: conduction, convection, and radiation. The interactive exhibit prototypes are coupled with an Energy Efficient Engineering Challenge in which participants, working in cooperative learning teams, use information learned from the exhibit prototype activities to retrofit a model house, improving its energy efficiency. The project components are piloted at the Palouse Discovery Science Center, and then travel to three underserved rural/tribal communities in Northern Idaho and Eastern Washington. Front-end and formative evaluation studies will demonstrate whether this model advances participant understanding of and interest in STEM topics and careers. The project will yield information about ways that other ISE practitioners can effectively incorporate cooperative learning strategies in informal settings to improve the transferability of knowledge gained from exhibits to real-world problem-solving challenges, especially for rural and underserved audiences. This project will also provide the ISE field with: 1) a model for increasing the capacity of small, rural science centers to form collaborative regional networks that draw on previously unused resources in their communities and provide more effective outreach to the underrepresented populations they serve, and 2) a model for coupling cooperative learning with outreach exhibits, providing richer experiences of active engagement.