Broadening Participation

With a decade passing since the release of the Next Generation Science Standards (NGSS), it is timely to reflect and consider the extent to which the promise of science teaching and learning that values and centers learners’ varied epistemologies for scientific sensemaking has been realized. We argue that this potential, in part, lies in the hands of our science education research community becoming aware and intentional with how we situate learners’ language-related resources and practices in our work.

Weaving computer science into the fabric of social studies, rather than teaching it as an isolated skill, makes both subjects more relevant, engaging, and beneficial to students.

Berson, M. J., Berson, I. R., Franklin, K. L., Fawley, V. N., Shank, P. S., Dovi, R. E., Gasca, S., Hochberg, E. D., Berstein, D. (2024). Thinking critically, coding creatively: Elevating social studies through inquiry-based learning and computer science integration. Social Education, 98-103.

Build a classroom community by building representations and visualizations of data related to students’ names.

Thanheiser, E., Koestler, C., Sugimoto, A. T., & Felton-Koestler, M. D. (2023). Construct it! What’s in a name? Collecting, organizing, and representing data. Mathematics Teacher: Learning and Teaching PK-12, 116(10), 746-752.

Build a classroom community by building representations and visualizations of data related to students’ names.

Thanheiser, E., Koestler, C., Sugimoto, A. T., & Felton-Koestler, M. D. (2023). Construct it! What’s in a name? Collecting, organizing, and representing data. Mathematics Teacher: Learning and Teaching PK-12, 116(10), 746-752.

Considered a core component of children’s foundational cognitive development, early mathematics experiences can support children’s long-term academic success. Teachers and families alike share the common goal of wanting children to succeed developmentally, socially, and academically. Given the importance of early mathematics to academic success in all subjects, children need and deserve to build a robust knowledge of early math concepts in their earliest years.

This chapter describes an ongoing research-practice partnership with in-service teachers in communities across Oregon focused on broadening participation in science, technology, engineering, and mathematics (STEM) fields. Broadening participation is essential for creating more justice-centered STEM in our society and cannot occur without families and communities working in partnership with educators to ensure that community resources, needs, and multi-generational perspectives are centered in this work.

When pressing societal challenges (e.g., COVID-19, access to clean water) are sidelined in science classrooms, science education fails to leverage the knowledge and experiences of minoritized students in school, thus reproducing injustices in society. Our conceptual framework for justice-centered STEM education engages all students in multiple STEM subjects, including data science and computer science, to explain and design solutions to pressing societal challenges and their disproportionate impact on minoritized groups.

This poster presents findings from design and early implementation work of the NSF DRK-12 project which positions 6th and 7th grade students as decision makers in their own learning, integrating culturally responsive mathematical modeling problems into their regular curriculum. We take a sociocritical perspective on modeling, supporting students in using mathematics to understand their life experiences and, when appropriate, to challenge the existing social order (e.g., Aguirre et al., 2019; Author, 2021; Cirillo et al., 2016; Felton-Koestler, 2020).

Justice-centred science pedagogy has been suggested as an effective framework for supporting teachers in bringing in culturally relevant pedagogy to their science classrooms; however, limited instructional tools exist that introduce social dimensions of science in ways teachers feel confident navigating.

Making science accessible is an important and worthy goal, but for many students, science is inaccessible because what counts as science in the classroom is narrowly defined as what is known as western science, rooted in Europe in the 1600s and often privileging white, male-centric perspectives. In this article, we describe five examples of expanding what counts as science to help remove barriers to learning and to make school science more equitable and inclusive. Indigenous ways of knowing can complement western ways of thinking.