Art and science represent two powerful human ways of investigating and understanding the natural and social world. Both are creative processes involving acts of observation, interpretation, meaning-making, and the communication of new insights. While standards of evidence may vary between the two fields, there are also many common practices. Many artists, for example, employ a range of computational, digital and engineering practices. Many scientists are guided in part by aesthetic considerations in the formulation of questions, theories, and models. In this report we share the results of a
This report summarizes findings from a research-practice partnership investigating STEM-rich making in afterschool programs serving young people from communities historically under-represented in STEM. The three-year study identified key dimensions related to (1) How STEM-Rich Making advances afterschool programmatic goals related to socio-emotional and intellectual growth for youth; (2) Key characteristics of programs that effectively engage youth historically marginalized in STEM fields; and (3) Staff development needs to support equity-oriented STEM-Rich Making programs.
This poster was presented at the 2016 Advancing Informal STEM Learning (AISL) PI Meeting held in Bethesda, MD on February 29-March 2. The project will provide much needed empirical results on how to promote children’s STEM engagement and learning in informal science education settings. The project will yield useful information and resources for informal science learning practitioners, parents, and other educators who look to advance STEM learning opportunities for children.
This poster was presented at the 2016 Advancing Informal STEM Learning (AISL) PI Meeting held in Bethesda, MD on February 29-March 2. Makerspaces are social spaces with tools, where individuals and groups conceptualize, design, and make things using new and old technologies. Literacy practices are the ways people use representational texts to navigate and make sense of their worlds. They are used in particular contexts with particular goals. By “representational texts” we mean written words, talk, photographs, diagrams, videos, schematics, computer code, electrical circuit diagrams
Afterschool continues to be promoted as a complementary setting to school for strengthening science, technology, engineering, and math (STEM) education (for example, Krishnamurthi, Bevan, Rinehart, & Coulon, 2013). This is a reasonable idea: 10.2 million children and youth in the U.S. participate in structured afterschool programs (Afterschool Alliance, 2014), and the flexibility of afterschool settings allows for innovative approaches to STEM exploration and engagement.
Many communities across the country are developing "maker spaces," environments that combine physical fabrication equipment, social communities of people working together, and educational activities for learning how to design and create objects. Increasingly, maker spaces and maker technologies are being designed to provide extended learning opportunities for school-aged young people. Unfortunately, few youth from under-represented populations have had the opportunity to participate in these maker spaces, and many communities do not have the resources to establish facilities dedicated to making activities. This project, a collaboration of faculty at California State University, San Marcos and San Diego County Office of Education, the Vista Unified School District, and the San Diego Fab Lab, is a feasibility study that will work to address these needs by implementing and evaluating a pilot Mobile Making program in an underserved youth population. It will bring Making to four after-school programs in underserved communities in San Diego by using a van to take both equipment and undergraduate student mentors to program sites. At these sites, between 50% and 90% of the students are Hispanic or Latino and between 40% and 90% are eligible for free or reduced price lunch. The project employs a research-based approach to the design and implementation of the Mobile Making program, coupled with an evidenced-based plan for developing a model for future dissemination. Project objectives are: increasing the participants' interest, self-efficacy, and perception of the relevance of Making/STEM in everyday life; identifying and overcoming challenges associated with a Mobile Making program; developing a model for implementing and assessing Mobile Making in underserved communities; and disseminating materials and guides for practitioners. Development will be guided by five research-based principles for design of out-of-school time programs in underserved communities: access to resources; ethnically diverse near-peer leaders; authentic activities; legitimacy within the community; and ongoing input from participants. To inform program development and implementation, including continuous monitoring and adjustment throughout the two-year initiative, the evaluation component will use a mixed methods approach to study outcomes with respect to the students, their parents and the undergraduate mentors. Future work will apply the lessons learned in the project to guide implementations and study the model's applicability in other informal education settings. The dissemination plan will include publication of project findings, activities, practitioner's guides, and the model for implementing making programs in underserved communities.
What if every kid had access to a real workshop? Like the ones in the corners of garages across the country: a basic array of tools, bits and pieces of hardware, piles of scrap materials and fasteners, plus stacks of unsorted boxes containing the remnants of projects gone by. Visualize also that the workshop held a few musical instruments-guitars, a keyboard, some percussion-as well as art supplies: markers, paints, clay, and the tools to shape it, ribbons glitter, beads, fabric, etc. n top of this, picture the workshop having a few hands-on exhibits to explore and manipulate-a vacuum chamber
This paper provides a brief overview of the ideas and principles underlying the connected learning movement, highlighting examples of how libraries are boosting 21st-century learning and promoting community development by partnering with a range of organisations and individuals to incorporate connected opportunities into their programmes. The connected learning movement supports interest-driven, peer-supported, and academically oriented learning for youth by promoting the core values of equity, participation, and social connection. By connecting formal and informal learning organisations with
Educational makerspaces (EM) and maker education (ME) have the potential to revolutionize the way we approach teaching and learning. The maker movement in education is built upon the foundation of constructionism, which is the philosophy of hands-on learning through building things. Constructionism, in turn, is the application of constructivist learning principles to a hands-on learning environment. Thus maker education is a branch of constructivist philosophy that views learning as a highly personal endeavor requiring the student, rather than the teacher, to initiate the learning process. In
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TEAM MEMBERS:
R. Steven KurtiDebby KurtiLaura Fleming
Multimodal technologies are creating new experiential opportunities for exploring, tinkering, learning and interacting in the virtual world. Once combined with sensorial objects and open-ended activities in the physical world, they introduce a new genre of interactive environments called ThinkeringSpace. ThinkeringSpace is a hybrid system - made of networked and remotely accessible physical environments - that seeks to bring school-age children together to collaborate face-to-face and tinker with things, both physical and virtual, reflect upon what they do and discover, and elaborate their
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TEAM MEMBERS:
Heloisa MouraDale FahnstromGreg PrygrockiT.J. McLeish
In the article, the author discusses technological developments in the education sector in the U.S. as of October 2013. He cites the introduction of the Next Generation Science Standards (NGSS) in early 2013 that is focused on science and engineering in the K-12 curriculum. The NGSS' four disciplinary core concepts include Earth and Space Sciences, Physical Sciences, and Engineering and Technology. He presents several NGSS-friendly software like Celestia and NetLogo, as well as hardware such as the Arduino open-source programmable controller.