Young people learn about science, technology, engineering, and math (STEM) in a variety of ways and from many sources, including school, the media, personal experiences, and friends and family. Yet STEM participation and identification by youth are not equal across social, economic, and cultural communities. This project will study a long-term, out-of-school program for high school-age youth, who are from groups under-represented in STEM academics and careers: girls, youth from low-income households, and youth of color. Located in the urban context of the Science Museum of Minnesota, the Kitty Andersen Youth Science Center (KAYSC) engages youth in applying culturally rich STEM content to work toward social justice and community building. Specifically, this project will examine how the learning practices of the KAYSC model support youth in identifying with, engaging in, and participating in STEM. Through studying the KAYSC's STEM Justice model, which centers youth as learners, teachers, and leaders who address critical community issues through STEM, this project will develop resources that informal science educators in a variety of contexts and programs can use to promote positive social change, equity, inclusion, and applied STEM learning.
The Science Museum of Minnesota will use design-based implementation research to study this model. This research will draw on and further the emerging theoretical framework of science capital. Science capital attempts to capture multiple aspects of science learning and application, including science knowledge, social and cultural resources, and science-related behaviors and practices. Empirically developing the theory of science capital has the potential to build concrete understanding of how to address inequalities in science participation. Four teams will work independently and collaboratively to do so: an adult research team, a high school youth research team, a practitioner team, and a co-design team composed of representatives from the other three teams. Research teams will collect data in the form of observations, semi-structured interviews, practitioner activity reports, artifacts, and the experience sampling method. Initial cycles of design will occur at the Science Museum of Minnesota as researchers and practitioners document, analyze, and iteratively design learning practices within the STEM Justice model. In the second half of the grant, the team will work with an external out-of-school time youth leadership site to implement the redesigned model. Participatory research and design methods involving both youth and adults can advance understanding of what makes out-of-school time STEM learning meaningful, relevant, and successful for marginalized youth and their communities. Grounded in culturally and socially relevant, community-based resources and programming, this project will study how leveraging STEM out-of-school time learning connected to social justice can broaden access to STEM as well as develop workforce, and leadership, and STEM skills by under-represented youth. The project also builds staff capacity for promoting equity and access in informal learning settings.
This project is being 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.
As part of an overall strategy to enhance learning within maker contexts in formal and informal environments, the Innovative Technology Experiences for Students and Teachers (ITEST) and Advancing Informal STEM Learning (AISL) programs partnered to support innovative models in Making poised to catalyze new approaches in STEM learning and innovation. Employing a novel design and development approach, this Early Concept Grant for Exploratory Research (EAGER) will test the feasibility of integrating Making concepts with real world micro-manufacturing engineering principles within the context of intense, multi-year team apprenticeship experiences for high school students. The apprenticeship model is particularly novel, as current Making research and experiences predominately take place in afterschool and summer programs for up to 25 youth. The proposed apprenticeships will require a two year commitment by a small cohort of Texas high school students, which will provide an opportunity to examine the feasibility and impact of the effort longitudinally. The cohort will learn to think critically, solve problems, and work together as a Making Production Team (MPT) in a customized makerspace in their high school, constructing engineering-based science kits for implementation in a local elementary school. Not only will the students enhance their content knowledge while developing design and development skills but the students will also receive stipends which will address two very practical needs for the targeted high need population - employment and workforce development. Few, if any, efforts currently serve the targeted population through the contextualization of Making within a supply chain management and micro-manufacturing framework that extends the Making experience by integrating the student designed products into elementary classrooms. As such, this project will contribute to essentially unexplored areas of Making research and development.
Six high school students from high poverty, underserved Texas communities along the Texas-Mexico border (colonias) will be selected for the Making Production Team (MPT). In Years 1 and 2, the students will meet regularly during the academic school year and over the summer with Texas A & M University undergraduates, graduate students, and the project team to learn key aspects of Making and manufacturing (i.e., ideation, prototyping, design, acquisition, personnel, and production) through hands-on making activities and direct instruction. Concurrently, a research study will be conducted to explore: (a) the actualization of the model in an underserved community, (b) the effectiveness of problem-based learning to train students in the model, and (c) STEM knowledge and self-concept. Data will be collected from multiple sources. An adapted version of the Academic Self-Description Questionnaire will be administered to the students to assess their STEM technical knowledge and skills as well as their self-concept in relation to STEM domains. Remote and in person interviews will be conducted with the students to track the evolution of the primary dependent variables, STEM learning and self-concept, over time. Program facilitators and partners will be interviewed to examine the feasibility of the making experience within the given context and for the targeted students. Finally, the students' diary reflections, products, and video recordings of their work sessions will also be examined. Time-series quantitative tests and in-depth qualitative methods will be used to analyze the data.
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TEAM MEMBERS:
Francis QuekSharon Lynn ChuMalini NatarajarathinamMathew Kuttolamadom
People of color who live in low income, urban communities experience lower levels of educational attainment than whites and continue to be underrepresented in science at all educational and professional levels. It is widely accepted that this underrepresentation in science is related, not only to processes of historical exclusion and racism, but to how science is commonly taught and that investigating authentic, relevant science questions can improve engagement and learning of underrepresented students. Approaching science in these ways, however, requires new teaching practices, including ways of relating cross-culturally. In addition to inequity in science and broader educational outcomes, people of color from low income, urban communities experience high rates of certain health problems that can be directly or indirectly linked to mosquitoes. Recognizing that undertaking public health research and preventative outreach efforts in these communities is challenging, there is a critical need for an innovative approach that leverages local youth resources for epidemiological inquiry and education. Such an approach would motivate the pursuit of science among historically-excluded youth while, additionally, involving pre-service, in-service, and informal educators in joint participatory inquiry structured around opportunities to learn and practice authentic, ambitious science teaching and learning.
Our long-term goal is to interrupt the reproduction of educational and health disparities in a low-income, urban context and to support historically-excluded youth in their trajectories toward science. This will be accomplished through the overall objective of this project to promote authentic science, ambitious teaching, and an orientation to science pursuits among elementary students participating in a university-school-community partnership promise program, through inquiry focused on mosquitoes and human health. The following specific aims will be pursued in support of the objective:
1. Historically-excluded youth will develop authentic science knowledge, skills, and dispositions, as well as curiosity, interest, and positive identification with science, and motivation for continued science study by participating in a scientific community and engaging in the activities and discourses of the discipline. Teams of students and educators will engage in community-based participatory research aimed at assessing and responding to health and well-being issues that are linked to mosquitoes in urban, low-income communities. In addition, the study of mosquitoes will engage student curiosity and interest, enhance their positive identification with science, and motivate their continued study.
2. Informal and formal science educators will demonstrate competence in authentic and ambitious science teaching and model an affirming orientation toward cultural diversity in science. Pre-service, in-service, and informal educators will participate in courses and summer institutes where they will be exposed to ambitious teaching practices and gain proficiency, through reflective processes such as video study, in adapting traditional science curricula to authentic science goals that meet the needs of historically excluded youth.
3. Residents in the community will display more accurate understandings and transformed practices with respect to mosquitoes in the urban ecosystem in service of enhanced health and well-being. Residents will learn from an array of youth-produced, culturally responsive educational materials that will be part of an ongoing outreach and prevention campaign to raise community awareness of the interplay between humans and mosquitoes.
These outcomes are expected to have an important positive impact because they have potential for improving both immediate and long-term educational and health outcomes of youth and other residents in a low-income, urban community.
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TEAM MEMBERS:
Katherine Richardson BrunaLyric Colleen Bartholomay
Young adulthood, typically defined as between the ages of 18 and 25, is a critical period of growth during which young people acquire the education and training that serve as the basis for their later occupations and income (Arnett, 2000). The successful transition from adolescence to early adulthood requires youth to have the skills and resources to graduate high school and then go to college or enter the workforce (Fuligni & Hardway, 2004; Lippman, Atienza, Rivers, & Keith, 2008). To accomplish these tasks in advanced urban societies, young adults need a wide range of social, cognitive
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.
The nature of STEM (science, technology, engineering, and mathematics) learning is changing as individuals have unprecedented, 24/7 access to science-related information and experiences from cradle to grave. Today’s science-education opportunities include not only traditional schooling, but also libraries, museums, zoos, aquaria, science centers, and parks and preserves; diverse broadcast media such as television, podcasts, and film; organized youth programs such as 4-H, after-school or summer camps, and special-interest clubs and hobby groups; and an ever-increasing array of digital media
This poster was presented at the 2016 Advancing Informal STEM Learning (AISL) PI Meeting held in Bethesda, MD on February 29-March 2. The SCIENCES project aims to create a STEM ecosystem in Fuller Park, a chronically, severely under-resourced urban community in Chicago.
Georgetown County Library will improve the digital-age critical workforce skills of local young people through STEM-related digital activities. Classes relating to online STEM resources, digital video production, and app development will result in increased skills and interpersonal abilities, as well as an appreciation for the public library as a dynamic and informative place. By working with a number of community organizations, the library seeks to reach a local youth community that has historically experienced high rates of poverty and low rates of high school completion, and build on previous efforts to provide job fairs, skills training, and other initiatives.
This Science Learning+ project will develop research-and-practice activities to explore how an integrated art, STEM, and society (what we refer to as STEAM) approach can expand science engagement and learning of youth aged 15-19, from low-income and non-dominant cultural communities. The project will review current knowledge, practice, and trends related to underrepresented youth, STEAM, and science engagement. The review will be used to develop: (1) A cross-setting research framework for investigating the relationship between informal STEAM learning experiences and young people's developing engagement with science. (2) Design principles for out-of-school STEAM programs that have proven effective in cultivating youth engagement with science and making relevant cross-setting connections. (3) Practitioner-friendly program evaluation tools that integrate findings from current research and practice related to cross-setting science learning of young adults especially non-dominant youth as it relates to STEAM learning experiences.
The MyBEST (Mentoring Youth Building Employable Skills in Technology) project, funded by a grant from the National Science Foundation's Informal Science Education program, concluded its three years of operation in 2006. This youth-based program was intended to provide participants with in-depth learning experiences involving information and design technologies. These experiences had a dual focus: enabling youth participants to gain fluency in using these technologies while showing them how adults apply them in work and academic endeavors. Appendix includes survey.
The purposes of the STUDIO 3D evaluation were to collect information about the impact upon student learning as a result of participating in the STUDIO 3D Project, as well as to elicit information for program improvement. Areas of inquiry include recruiting and retention, impact on project participants, tracking student impacts, and the project as a whole.