Tinkering experiences in informal learning spaces can engage families in engineering practices and support learning (Pagano et al., 2020). Further, reflections after informal learning experiences can reveal and extend children’s memory and learning (Pagano et al., 2019), but reflections vary by age, culture, setting, program, and other factors (Fivush et al., 2006). We examined how the conversational structure and engineering content of families’ reflections vary across multiple museum visits and across different types of tinkering programs (e.g., open-ended vs. function-focused).
Tinkering activities designed for parents and children can foster spatial thinking, which benefits spatial skill development (Ramey et al., 2020). During tinkering activities, families may be challenged to use tools and materials to solve open-ended problems (Bevan, 2017). The problems specified by different tinkering challenges can highlight intrinsic or extrinsic spatial information (Chatterjee, 2008; Mix et al., 2018). In this project we asked, how does the spatial information highlighted by a tinkering challenge affect the quality of families’ spatial thinking?
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TEAM MEMBERS:
Naomi PolinskyElena FiegenKaitlyn HurkaCatherine HadenDavid Uttal
The tinkering process of making, testing, and iteratively redesigning projects can teach children about engineering concepts (Marcus et al., 2021; NGSS, 2013), but there is variability in how tinkering programs are designed. Storytelling may make children’s learning experiences personally meaningful and narratively organized, thereby supporting memory (Bruner, 1996). We designed multiple story-based tinkering programs and examined how the types of story characters and goals introduced in the tinkering programs would relate to the content of families’ talk in post-tinkering reflections.
In this project, we asked whether storytelling during tinkering might support children’s engagement in STEM and how that may differ across boys and girls. According to Bruner (1996), stories can help children to organize experiences by adding coherence, increasing understanding, and facilitating learning. We observed associations between story and STEM in two contexts: home and museum exhibit.
Given the important role of autonomy support in children’s motivation and learning, this study asked whether parents’ use of autonomy supportive language (vs. controlling language) was associated with children’s engagement in science, technology, engineering, and mathematics in a bi-directional manner during an at-home tinkering activity.
The Bay Area Discovery Museum will address the need for STEM education by delivering engineering outreach programming to schools and libraries throughout the San Francisco Bay Area. The museum's mobile engineering lab, Try It Truck, will introduce the engineering design process to students and teachers in grades K-5 with hands-on activities (both on and off the truck) where they can collaborate, experiment, and design solutions to engineering challenges. The Try It Truck will serve 21,600 children, parents, and educators throughout the Bay Area, with at least 50 percent of all participants coming from underserved communities and Title I schools. The museum will work with an external evaluator to design survey instruments for both formative and summative evaluation, analyze summative evaluation data, and produce a report. Museum staff will share project results with colleagues at national and statewide conferences.
Hands-on tinkering experiences can help promote more equitable STEM learning opportunities for children from diverse backgrounds (Bevan, 2017; Vossoughi & Bevan, 2014). Latine heritage families naturally engage in and talk about engineering practices during and after tinkering in a children’s museum (Acosta & Haden, in press). We asked how the everyday practice of oral stories and storytelling could be leveraged during an athome tinkering activity to support children’s informal engineering and spatial learning.
Informal educational activities, such as tinkering, can be beneficial for children’s engineering learning (Bevan, 2017; Sobel & Jipson, 2016). Storytelling can help children organize and make meaning of their experiences (Brown et al., 2014; Bruner, 1996), thereby supporting learning. Digital storytelling, in which narratives and reflections are combined with photos and videos in order to be shared with an audience, has become a familiar, enjoyable activity for many children (Robin, 2008). We examine whether digital storytelling activities during tinkering and reflection will be related to
Informal educational activities, such as tinkering, can be beneficial for children’s engineering learning (Bevan, 2017; Sobel & Jipson, 2016). Storytelling can help children organize and make meaning of their experiences (Brown et al., 2014; Bruner, 1996), thereby supporting learning. We examine whether digital storytelling activities during tinkering and reflection will be related to more engineering talk.We also explore whether children with previous digital storytelling experience will produce higher quality narratives than children without.
DiscoverE hired Concord Evaluation Group (CEG) to conduct an independent evaluation of the Future City program. Future City has been operating since 1992. According to DiscoverE, the Future City program is “a national, project-based learning experience where students in 6th, 7th, and 8th grade imagine, design, and build cities of the future. Students work as a team with an educator and engineer mentor to plan cities using SimCityTM software; research and write solutions to an engineering problem; build tabletop scale models with recycled materials; and present their ideas before judges at
Future City, operating since 1992, is “a national, project-based learning experience where students in sixth, seventh, and eighth grade imagine, design, and build cities of the future. Students work as a team with an educator and engineer mentor to plan cities using SimCityTM software, research and write solutions to an engineering problem, build tabletop scale models with recycled materials, and present their ideas before judges at regional competitions in January. Regional winners represent their region at the National Finals in Washington, DC in February.
Future City’s cross-curricular
Maker education has increased tremendously in community settings and classrooms across the country. Maker education is learner-driven and hands-on, often collaborative, and may focus on solving a problem or designing an object or device. There is a growing need for assessment and evaluation tools and approaches to understand and improve the nature of maker learning and provide evidence for the value of maker pedagogy. This workshop will bring together approximately 25 researchers from formal and informal settings as well as practitioners to review current maker assessment and evaluation tools and examine the role those tools can play for informing research and practice. The workshop will identify areas where future work is needed, including designing assessment and evaluation that effectively addresses the interests and needs of diverse learners. The workshop will disseminate an online collection of these assessment and evaluation tools, a research brief, and several webinars sharing the results and recommendations of the conference.
The two-day, in-person conference will include pre-workshop surveys to determine and refine issues for consideration at the conference, identify a core set of readings and resources for conference participants, and to identify key topics for research briefings presented at the conference. The conference will include background briefings, hands-on try-outs of assessment tools, synthesis discussions, and identification of future directions for research and next steps. Resources developed from the workshop will be widely disseminated through workshop partner Maker Education’s website, an annual maker conference held at the University of Wisconsin, and through other publications reaching researchers and practitioners in informal and formal educational settings,
This project is funded by the Advancing Informal STEM Learning (AISL) program, which seeks to (a) advance new approaches to and evidence-based understanding of the design and development of STEM learning in informal environments; (b) provide multiple pathways for broadening access to and engagement in STEM learning experiences; (c) advance innovative research on and assessment of STEM learning in informal environments; and (d) engage the public of all ages in learning STEM in informal environments.