Elementary

Cognitive differences have historically led to deficit assumptions concerning the mathematical experiences that children with learning disabilities (LD) can access. We argue that the problem can be located not within children but instead as a mismatch between features of instruction and children’s unique learning abilities. In this paper, we investigate how one elementary school child, Jim, with specific visual motor integration differences constructed a unit fraction concept.

The Framework for K‐12 Science Education and the Next Generation Science Standards propose that students learn core ideas and practices related to engineering as well as science. To do so, students will need high‐quality curricular materials designed to meet these goals. We report an efficacy study of an elementary engineering curriculum, Engineering is Elementary (EiE) that includes a set of hypothesized critical components designed to encourage student engagement in practices, connect engineering and science learning, and reach diverse students.

As teacher education shifts to focus on teaching beginners to do the work of teaching, assessments need to shift to focus on assessing practice. We focus on one teaching practice, eliciting student thinking, in the context of elementary mathematics. We describe assessments in two contexts (field and simulation). For each assessment, we describe the eliciting of three prospective teachers what could be seen about the skills of group of prospective teachers (N = 44).

As teacher education shifts to focus on teaching beginners to do the work of teaching, assessments need to shift to focus on assessing practice. We focus on one teaching practice, eliciting student thinking, in the context of elementary mathematics. We describe assessments in two contexts (field and simulation). For each assessment, we describe the eliciting of three prospective teachers what could be seen about the skills of group of prospective teachers (N = 44).

This brief describes how to support equity for students, teachers, and communities through place-based science education strategies.

Coleman, S., Chinn, P., Morrison, D., & Kaupp, L. (2019). How place-based science education strategies can support equity for students, teachers, and communities. STEM Teaching Tools.

This brief describes how to support equity for students, teachers, and communities through place-based science education strategies.

Coleman, S., Chinn, P., Morrison, D., & Kaupp, L. (2019). How place-based science education strategies can support equity for students, teachers, and communities. STEM Teaching Tools.

This graphic is designed to support students, teachers, and families in thinking across timescales to understand socio-ecological relationships to place across time.

This resource serves as a guide for how to use Histories of Place in planning and instruction.

This tool, Rhizome, contains three foundational pillars: complex socio-ecological systems, nature-culture relations, and field-based science learning, with student learning and sense making made central. The Seasonal Storyline engages learners and their families in field-based science that connects family knowledge and place-based, student-led investigations.

The CRIS “7e” lesson plan template, adapted from the Next Generation Science “5e”, centers the importance of including Elders and Environment in Indigenous STEM teaching and learning. The template is a way for teachers to weave Traditional Ecological Knowledge (TEK) and Western Science into lessons, and has been formative in helping team members integrate community knowledge and land-based education into science learning experiences.