Understanding How Integrated Computational Thinking, Engineering Design, and Mathematics Can Help Students Solve Scientific and Technical Problems in Career Technical Education

The goal of the project is to support mathematics coaches to (a) facilitate productive planning and debriefing conversations with teachers; (b) notice salient coaching practices and their impact on teachers' thinking; and (c) use evidence of teacher learning to make decisions about their own coaching practices. We engage coaches in a three-part professional development model that includes (a) an online course on content-focused coaching, (b) one-on-one video-based coaching cycles, and (c) an online video club.
The goal of the project is to support mathematics coaches to (a) facilitate productive planning and debriefing conversations with teachers; (b) notice salient coaching practices and their impact on teachers' thinking; and (c) use evidence of teacher learning to make decisions about their own coaching practices. We engage coaches in a three-part professional development model that includes (a) an online course on content-focused coaching, (b) one-on-one video-based coaching cycles, and (c) an online video club.
For the last three years, we have been creating an app called CHALK (Coaching to Help Activate Learning for Kids) that guides instructional coaches to collect observation data in PreK classrooms, view instant results, engage in data-driven coaching conversations, co-create an action plan with the teacher, and track progress over time through continued observations and goal-setting. CHALK focuses on specific classroom practices that are predictive of students' gains (Christopher & Farran, 2020).
How Do Teacher Leaders Transform Scientific Practices to Promote Students Interest and Motivation in STEM? Formal and informal K-12+ educators learn to employ strategies of community mapping, curricular mapping and place-based, culturally sustaining pedagogy to write, teach, and evaluate NGSS lessons that engage underrepresented students in mathematics, life, earth, and physical sciences. Two case studies highlight how educators apply these strategies to intersect three domains: experiential/place-based learning, culturally sustaining learning, and disciplinary learning .
To lower the barriers in STEM disciplines for students, using evidence-based research, we designed and conducted a professional development program that built middle school teachers' capacity to use hands-on robotics and engineering design as the curriculum focus. Through summer workshops, teachers learned to: build and program LEGO robots; create and implement standards-aligned robotics-based STEM lessons; and develop, practice, and examine optimal pedagogical approaches for STEM learning using robotics.
The Video in the Middle (VIM) project is creating forty asynchronous two-hour modules in which a video clip is at the center as teachers take part in an online experience involving mathematical problem solving, video analysis of classroom practice, and pedagogical reflection. A RCT study was conducted in February/March 2020 with 68 teachers randomly assigned across the three delivery formats Self-paced: 29, Locally facilitated: 19, VIM facilitated: 20) to examine the VIM PD impact.
Co-PI(s): Catherine Carroll and Bob Montgomery, WestEd
This article describes one mathematics professional development program designed to support all K-5 students' engagement in productive mathematical discussions, in particular emergent multilingual learners.
Malzahn, K., Sztajn, P., & Heck, D. (October, 2019). Talk is the ticket to teaching math to English learners. The Learning Professional, 40(5).
This article describes one mathematics professional development program designed to support all K-5 students' engagement in productive mathematical discussions, in particular emergent multilingual learners.
In this paper, we analyze a PD design, examining its activities and the sequencing of professional learning tasks. We use a theoretical framework typically used in pre-service teacher education to understand the design of one PD program. Our overarching goal is to theorize about how to design PD and sequence professional learning tasks for practicing teachers.
In this paper, authors analyze a PD design, examining its activities and the sequencing of professional learning tasks.
In this chapter, we use the Framework for Teaching Practice (Grossman, et al., 2009) as a conceptual tool for analzying the design of professional development. Although initially developed to examine the education of prospective teachers, we contend that this framework is appropriate for analyzing and supporting the design of professional development. The framework consists of three elements: decompositions, representations, and approximations of practice.
In this chapter, authors use the Framework for Teaching Practice (Grossman, et al., 2009) as a conceptual tool for analzying the design of professional development.