The University of Montana spectrUM Discovery Area will implement “Making Across Montana” —a project to engage K–12 students and teachers in rural and tribal communities with making and tinkering. In collaboration with K–12 education partners in the rural Bitterroot Valley and on the Flathead Indian Reservation, the museum will develop a mobile making and tinkering exhibition and education program. The exhibition will be able to travel to K–12 schools statewide. The project team will develop a K–12 teacher professional development workshop, along with accompanying curriculum resources and supplies. The traveling program and related materials will build schools’ capacity to incorporate making and tinkering—and informal STEM experiences more broadly—into their teaching.
The Lewis H. Latimer House Museum will develop a more cohesive education program that reflects both the museum's resources and the needs of local schools. The museum's deputy director and Tinkering Lab educator will work together to design a curriculum that meets current New York State and city standards, enabling the museum to more effectively serve schools in the community with object-based learning experiences. Packets of educational materials will be developed and made available for school teachers to download and use in their classrooms prior to and following visits to the museum. Target schools will be actively involved in the process of testing and utilizing the products. Project results will be shared with internal and external stakeholders to sustain long-term improvement and enhance institutional capacity.
Making experiences and activities are rich with opportunities for mathematical reasoning that often go unrecognized by both participants and educators. Since 2015, we have been exploring this potential through the Math in the Making initiative. The work focuses particularly on children’s museums and science centers, many of which have developed maker spaces and programs over the last decade. In this article, we share insights from our most recent round of research. To begin, we consider the fundamental question of what it means to authentically integrate mathematics with making.
Described by Wohlwend, Peppler, Keune and Thompson (2017) as “a range of activities that blend design and technology, including textile crafts, robotics, electronics, digital fabrication, mechanical repair or creation, tinkering with everyday appliances, digital storytelling, arts and crafts—in short, fabricating with new technologies to create almost anything” (p. 445), making can open new possibilities for applied, interdisciplinary learning in science, technology, engineering and mathematics (Martin, 2015), in ways that decenter and democratize access to ideas, and promote the construction
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TEAM MEMBERS:
Jill CastekMichelle Schira HagermanRebecca Woodland
Using a design-based research approach, we studied ways to advance opportunities for children and families to engage in engineering design practices in an informal educational setting. 213 families with 5–11-year-old children were observed as they visited a tinkering exhibit at a children’s museum during one of three iterations of a program posing an engineering design challenge. Children’s narrative reflections about their experience were recorded immediately after tinkering. Across iterations of the program, changes to the exhibit design and facilitation provided by museum staff corresponded
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TEAM MEMBERS:
Maria MarcusDiana AcostaPirko TouguDavid UttalCatherine Haden
"Making and Tinkering" links science, technology, engineering and mathematics learning (STEM) to the do-it-yourself "maker" movement, where people of all ages "create and share things in both the digital and physical world" (Resnick & Rosenbaum, 2013). This paper examines designing what Resnick and Rosenbaum (2013) call "contexts for tinkerability" within the social design experiment of El Pueblo Mágico (EPM) -- a design approach organized around a cultural historical view of learning and development. We argue that this theoretical perspective reorganizes normative approaches to STEM education
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TEAM MEMBERS:
Lisa SchwartzDaniela DigiacomoKris Gutierrez
As professionals, we often assume that the engaging experiences visitors have in our exhibits and programs will lead to long-term learning. But how do we know this is happening, and, moreover, how do we design exhibits, programs and interactions to maximize visitors’ ability to learn from their experiences? At Chicago Children’s Museum a long- standing research collaboration with Northwestern University and Loyola, Chicago University has allowed us to examine how families’ conversational reflections during and after their in-museum experiences impact children’s ability to process and recall
But many young people face signifcant economic, cultural, historical, and/or social obstacles that distance them from STEM as a meaningful or viable option— these range from under-resourced schools, race- and gender-based discrimination, to the dominant cultural norms of STEM professions or the historical uses of STEM to oppress or disadvantage socio-economically marginalized communities (Philip and Azevedo 2017). As a result, participation in STEM-organized hobby groups, academic programs, and professions remains low among many racial, ethnic, and gender groups (Dawson 2017). One solution to
While there is increased interest in youth-centered maker programs in informal educational contexts, scarce research-informed professional development exist that focus on how informal educators do or should plan and handle ongoing, just-in-time support during moments of failure. Prior research supports the important role of failure in maker programming to increase learning, resilience and other noncognitive skills such as self-efficacy and independence. The objective of this project is to address this gap through adapting, implementing, and refining a professional development program for informal educators to productively attend, interpret, and respond to youths’ experiences with failure while engaged in maker programs in informal learning contexts. In the first two years of the project, the research team will work closely with six partners to implement and refine the professional development model: The Tech Museum of Innovation, The Bakken Museum, Montshire Museum of Science, The Minneapolis Institute of Art, Thinkery, and Amazeum Children’s Museum. In the last year of the project, the team will scale-up the professional development model through partnering with an additional nine institutions implementing maker programming for youth. The professional development consists of two models. In the first model, we support one to two lead facilitators at each partnering institution through an initial three-day workshop and ongoing support meetings. In the second model, the lead facilitators support other informal educators at their institution implementing making programs for youth. This project will enhance the infrastructure for research and education as collaborations and professional learning communities will be established among a variety of informal learning institutions. The project will also demonstrate a link between research and institutional and societal benefits through shifting the connotation and perceptions of failure to be valued for its educational potential and to empower informal educators to support discomfort and struggle throughout maker programs with youth.
The three goals of this collaborative project are to (a) advance the field of informal education through a research-based professional development program specific to youths’ failures during maker programs; (b) support shifts in informal educators’ facilitation practices and perspectives around youth’s failure experiences, and (c) investigate the effects of the professional development on youths’ resilience and failure mindset. The iterative nature of this project will be informed by the collection and analysis of video data of professional development sessions and informal educators facilitating maker programs, reflective journaling, surveys regarding the professional development, and pre-post surveys from youth engaged in the maker programs. Dissemination will address multiple stakeholders, including informal educators, program developers, evaluators, researchers, and public audiences.
This Innovations in Development project is funded by the Advancing Informal STEM Learning (AISL) program, which seeks to advance new approaches to, and evidence-based understanding of, the design and development of STEM learning in informal environments. This includes providing multiple pathways for broadening access to and engagement in STEM learning experiences, advancing innovative research on and assessment of STEM learning in informal environments, and developing understandings of deeper learning by participants.
Engaging with Tinkering is a highly stimulating and complex experience and invites rich reflections from museum practitioners and teachers. "Tinkering as an inclusive approach for building STEM identity and supporting students facing disadvantage or with low science capital” presents the reflective practice process and tools designed by the "Tinkering EU: Building Science Capital for All" project aiming to understand in more depth the potential impact of using a Tinkering approach with students facing disadvantage. Using tools specifically designed to help teachers observe their students
The Vertically Integrated Science Learning Opportunity (VISLO) program builds upon an existing three-way partnership between (i) faculty, graduate students, and undergraduate students form the University Nebraska-Lincoln (UNL), (ii) the 21st Century Community Learning Centers (CLC) in Lincoln, NE, and (iii) The University of Nebraska State Museum.
VISLO uniquely incorporates vertically-integrated peer instruction across educational levels, including: graduate, undergraduate, middle school, and elementary school. Throughout the program, participants of all identified educational levels had
Tinkering creates a bridging point between a learner’s personal interests and experiences and a broad range of possible learning outcomes. It offers valuable opportunities to engage all students in STEM and fosters a more inclusive STEM education. In this way, it is very much aligned with a Science Capital Teaching Approach: fundamentally, it is a highly personalised pedagogy, which allows the learner to follow their own interests and set their own goals.
This resource has been designed to help teachers integrate the Tinkering approach and the Science Capital framework in their practice