Middle School

Supporting Students' Language, Knowledge, and Culture through Science

This project will test and refine a teaching model that brings together current research about the role of language in science learning, the role of cultural connections in students' science engagement, and how students' science knowledge builds over time. The outcome of this project will be to provide an integrated framework that can guide current and future science teachers in preparing all students with the conceptual and linguistic practices they will need to succeed in school and in the workplace.

Lead Organization(s): 
Award Number: 
2010633
Funding Period: 
Tue, 09/01/2020 to Sat, 08/31/2024
Full Description: 

The Language, Culture, and Knowledge-building through Science project seeks to explore and positively influence the work of science teachers at the intersection of three significant and ongoing challenges affecting U.S. STEM education. First, U.S. student demographics are rapidly changing, with an increasing number of students learning STEM subjects in their second language. This change means that all teachers need new skills for meeting students where they currently are, linguistically, culturally, and in terms of prior science knowledge. Second, the needs and opportunities of the national STEM workforce are changing rapidly within a shifting employment landscape. This shift means that teachers need to better understand future job opportunities and the knowledge and skills that will be necessary in those careers. Third, academic expectations in schools have changed, driven by changes in education standards. These new expectations mean that teachers need new skills to support all students to master a range of practices that are both conceptual and linguistic. To address these challenges, teachers require new models that bring together current research about the role of language in science learning, the role of cultural connections in students' science engagement, and how students' science knowledge builds over time. This project begins with such an initial model, developed collaboratively with science teachers in a prior project. The model will be rigorously tested and refined in a new geographic and demographic context. The outcome will be to provide an integrated framework that can guide current and future science teachers in preparing all students with the conceptual and linguistic practices they will need to succeed in school and in the workplace.

This project model starts with three theoretical constructs that have been integrated into an innovative framework of nine practices. These practices guide teachers in how to simultaneously support students' language development, cultural sustenance, and knowledge building through science with a focus on supporting and challenging multilingual learners. The project uses a functional view of language development, which highlights the need to support students in understanding both how and why to make shifts in language use. For example, students' attention will be drawn to differences in language use when they shift from language that is suited to peer negotiation in a lab group to written explanations suitable for a lab report. Moving beyond a funds of knowledge approach to culture, the team view of integrating students' cultural knowledge includes strengthening the role of home knowledge in school, but also guiding students to apply school knowledge to their out-of-school interests and passions. Finally, the project team's view of cumulative knowledge building, informed by work in the sociology of knowledge, highlights the need for teachers and students to understand the norms for meaning making within a given discipline. In the case of science, the three-dimensional learning model in the Next Generation Science Standards makes these disciplinary norms visible and serves as a launching point for the project's work. Teachers will be supported to structure learning opportunities that highlight what is unique about meaning making through science. Using a range of data collection and analysis methods, the project team will study changes in teachers' practices and beliefs related to language, culture and knowledge building, as teachers work with all students, and particularly with multilingual learners. The project work will take place in both classrooms and out of class science learning settings. By working closely over several years with a group of fifty science teachers spread across the state of Oregon, the project team will develop a typology of teachers (design personas) to increase the field's understanding of how to support different teachers, given their own backgrounds, in preparing all students for the broad range of academic and occupational pathways they will encounter.

Learning Progressions in Science: Analyzing and Deconstructing the Multiple Dimensions in Assessment

Through this project, researchers will develop internet-based assessments designed to capture learning outcomes that (a) measure the higher order cognitive skills that are essential to current reform efforts, and (b) that report results in ways that are readily accessible and interpretable.

Award Number: 
2010322
Funding Period: 
Tue, 09/01/2020 to Sat, 08/31/2024
Full Description: 

Assessments are a crucial tool to enable the success of teaching and learning in science classrooms. Hence, to realize the vision of current reform efforts assessments must be developed that (a) measure the higher order cognitive skills that are essential to those reforms, and (b) that report results in ways that are readily accessible and interpretable. Through this project, researchers will develop internet-based assessments that capture such learning outcomes. These assessments can influence policy and practice by providing tangible products that exemplify the kind of learning outcomes and performances expected in today's science classrooms. The measures will also ensure that all students are assessed fairly. This project has the potential to enable students to express their knowledge and skills in a variety of ways which are less demanding and more creative than typical in traditional assessments.

Researchers will develop assessment materials aligned to the Next Generation Science Standards practice of scientific argumentation, the cross-cutting concept of patterns, and content in each of the following foundational middle school science domains - physical, life, and Earth sciences. Researchers will work closely with administrators and educators to ensure the relevance and alignment of materials to teachers' needs. Data will be gathered from middle and high school students from ethnically, culturally, and linguistically diverse school districts in California and Arizona. Key measures to be developed include embedding questions about patterns into the nine existing scenarios (tasks) and in new scenarios about natural resources. The team will develop assessments that can be used in both open-ended and selected response formats, to enhance their usefulness to teachers for diagnostic understanding, and their efficiency for summative classroom use. Data will also be gathered from teachers, to help develop interpretational materials. Teachers will have access, in real time, to their own students' responses, and estimates of students' performance on learning progressions within each of the science practices, crosscutting concepts and domains mentioned. The team will use the BEAR Assessment System to develop and refine assessment materials. This system is an integrated approach to developing assessments that seeks to provide meaningful interpretations of student work relative to cognitive and developmental goals. The researchers will gather empirical evidence to develop and improve the assessment materials, and then gather reliability and validity evidence to support their use. In total, item response data will be collected from several thousand students across the two districts. Student response data will be analyzed using multidimensional item response theory models.

How Deep Structural Modeling Supports Learning with Big Ideas in Biology (Collaborative Research: Capps)

This project addresses the pressing need to more effectively organize STEM (science, technology, engineering, and mathematics) teaching and learning around "big ideas" that run through science disciplines. Unfortunately, finding ways to teach big ideas effectively so they become useful as knowledge frameworks is a significant challenge. Deep structure modeling (DSM), the innovation advanced in this project, is designed to meet this challenge in the context of high school biology.

Lead Organization(s): 
Partner Organization(s): 
Award Number: 
2010223
Funding Period: 
Sat, 08/01/2020 to Wed, 07/31/2024
Full Description: 

This project addresses the pressing need to more effectively organize STEM (science, technology, engineering, and mathematics) teaching and learning around "big ideas" that run through science disciplines. This need is forcefully advanced by policy leaders including the National Research Council and the College Board. They point out that learning is more effective when students organize and link information within a consistent knowledge framework, which is what big ideas should provide. Unfortunately, finding ways to teach big ideas effectively so they become useful as knowledge frameworks is a significant challenge. Deep structure modeling (DSM), the innovation advanced in this project, is designed to meet this challenge in the context of high school biology. In DSM, students learn a big idea as the underlying, or "deep" structure of a set of examples that contain the structure, but with varying outward details. As learners begin to apprehend the deep structure (i.e., the big idea) within the examples, they use the tools and procedures of scientific modeling to express and develop it. According to theories of learning that undergird DSM, the result of this process should be a big idea that is flexible, meaningful, and easy to express, thus providing an ideal framework for making sense of new information learners encounter (i.e., learning with the big idea). To the extent that this explanation is born out in rigorous research tests and within authentic curriculum materials, it contributes important knowledge about how teaching and learning can be organized around big ideas, and not only for deep structural modeling but for other instructional approaches as well.

This project has twin research and prototype development components. Both are taking place in the context of high school biology, in nine classrooms across three districts, supporting up to 610 students. The work focuses on three design features of DSM: (1) embedding model source materials with intuitive, mechanistic ideas; (2) supporting learners to abstract those ideas as a deep structure shared by a set of sources; and (3) representing this deep structure efficiently within the model. In combination, these features support students to understand an abstract, intuitively rich, and efficient knowledge structure that they subsequently use as a framework to interpret, organize, and link disciplinary content. A series of five research studies build on one another to develop knowledge about whether and how the design features bring about these anticipated effects. Earlier studies in the sequence are small-scale classroom experiments randomly assigning students to either deep structural modeling or to parallel, non modeling controls. Measures discriminate for the anticipated effects during learning and on posttests. Later studies use qualitative methods to carefully trace the anticipated effects over time and across topics. As a group, these studies are contributing generalized knowledge of how learners can effectively abstract and represent big ideas and how these ideas can be leveraged as frameworks for learning content with understanding. Two research-tested biology curriculum prototypes are being developed as the studies evolve: a quarter-year DSM biology curriculum centered on energy; and an eighth-year DSM unit centered on natural selection.

How Deep Structural Modeling Supports Learning with Big Ideas in Biology (Collaborative Research: Shemwell)

This project addresses the pressing need to more effectively organize STEM (science, technology, engineering, and mathematics) teaching and learning around "big ideas" that run through science disciplines. Unfortunately, finding ways to teach big ideas effectively so they become useful as knowledge frameworks is a significant challenge. Deep structure modeling (DSM), the innovation advanced in this project, is designed to meet this challenge in the context of high school biology.

Lead Organization(s): 
Partner Organization(s): 
Award Number: 
2010334
Funding Period: 
Sat, 08/01/2020 to Wed, 07/31/2024
Full Description: 

This project addresses the pressing need to more effectively organize STEM (science, technology, engineering, and mathematics) teaching and learning around "big ideas" that run through science disciplines. This need is forcefully advanced by policy leaders including the National Research Council and the College Board. They point out that learning is more effective when students organize and link information within a consistent knowledge framework, which is what big ideas should provide. Unfortunately, finding ways to teach big ideas effectively so they become useful as knowledge frameworks is a significant challenge. Deep structure modeling (DSM), the innovation advanced in this project, is designed to meet this challenge in the context of high school biology. In DSM, students learn a big idea as the underlying, or "deep" structure of a set of examples that contain the structure, but with varying outward details. As learners begin to apprehend the deep structure (i.e., the big idea) within the examples, they use the tools and procedures of scientific modeling to express and develop it. According to theories of learning that undergird DSM, the result of this process should be a big idea that is flexible, meaningful, and easy to express, thus providing an ideal framework for making sense of new information learners encounter (i.e., learning with the big idea). To the extent that this explanation is born out in rigorous research tests and within authentic curriculum materials, it contributes important knowledge about how teaching and learning can be organized around big ideas, and not only for deep structural modeling but for other instructional approaches as well.

This project has twin research and prototype development components. Both are taking place in the context of high school biology, in nine classrooms across three districts, supporting up to 610 students. The work focuses on three design features of DSM: (1) embedding model source materials with intuitive, mechanistic ideas; (2) supporting learners to abstract those ideas as a deep structure shared by a set of sources; and (3) representing this deep structure efficiently within the model. In combination, these features support students to understand an abstract, intuitively rich, and efficient knowledge structure that they subsequently use as a framework to interpret, organize, and link disciplinary content. A series of five research studies build on one another to develop knowledge about whether and how the design features bring about these anticipated effects. Earlier studies in the sequence are small-scale classroom experiments randomly assigning students to either deep structural modeling or to parallel, non modeling controls. Measures discriminate for the anticipated effects during learning and on posttests. Later studies use qualitative methods to carefully trace the anticipated effects over time and across topics. As a group, these studies are contributing generalized knowledge of how learners can effectively abstract and represent big ideas and how these ideas can be leveraged as frameworks for learning content with understanding. Two research-tested biology curriculum prototypes are being developed as the studies evolve: a quarter-year DSM biology curriculum centered on energy; and an eighth-year DSM unit centered on natural selection.

Enhancing Energy Literacy through Place-based Learning: Using the School Building to Link Energy Use with Earth Systems

This exploratory project will design, pilot, and evaluate a 10-weeek, energy literacy curriculum unit for a program called Energy and Your Environment (EYE). In the EYE curriculum, students will study energy use and transfer in their own school buildings. They will explore how Earth systems supply renewable and nonrenewable energy, and how these energy sources are transformed and transferred from Earth systems to a school building to meet its daily energy requirements.

Lead Organization(s): 
Award Number: 
2009127
Funding Period: 
Tue, 09/01/2020 to Thu, 08/31/2023
Full Description: 

Student understanding of energy concepts about Earth systems and human-built systems require grappling with current societal issues related to resource use and management, energy sources, climate impacts, and sustainability. These relationships are challenging for students and underdeveloped in many science curriculum frameworks. This exploratory project will design, pilot, and evaluate a 10-weeek, energy literacy curriculum unit for a program called Energy and Your Environment (EYE). In the EYE curriculum, students will study energy use and transfer in their own school buildings. They will explore how Earth systems supply renewable and nonrenewable energy, and how these energy sources are transformed and transferred from Earth systems to a school building to meet its daily energy requirements. Learning about complex ideas in a place that is common to both students and teachers provides a means for deeper understanding and application of energy use and exchange. The research team includes researchers in biology and in architecture with an emphasis on natural resources and the environment. The researchers will work with four middle school science teachers to develop a curriculum unit that requires deep understanding of energy-systems models, but that will also be designed to apply to the school system and community. This is place-based learning aligned with the Next Generation Science Standards to foster energy literacy, modeling of energy use and flow, and systems thinking.

The research questions for this study will ask about students' ability to construct and explain models about energy use and exchange, as well as about teachers' use of the newly developed instructional materials. The research team will collaborate with 4 middle school teachers to design and test the unit in their classrooms. Data collection includes students' drawn models of the energy systems in use in their school building, student and teacher interviews, classroom observations, and teacher questionnaires. Student understanding of the learning goals will be assessed through a learning performance on energy modeling, and an accompanying rubric to score student models and explanations. After an initial implementation of the unit in classrooms, the following summer, researchers and teachers will meet to revise the curriculum materials. Then, teachers new to the curriculum unit will participate in the professional development required to teach the EYE unit. They will introduce the revised unit to their students in the next year, as researchers collect data and evaluate student learning for the revised curriculum materials. Overall, the project intends to include about 600 middle school students.

Preparing Teachers to Design Tasks to Support, Engage, and Assess Science Learning in Rural Schools

This study focuses on working with teachers to develop assessment practices that focuses on the three NGSS dimensions of science ideas, practices and cross-cutting concepts, and adds two more dimensions; teachers will develop assessment tasks interesting to students, and promote the development of their science identities. To advance equitable opportunities for all students to learn science, this project will design and provide an online course to support rural teachers who teach science in grades 6-12.

Lead Organization(s): 
Partner Organization(s): 
Award Number: 
2010086
Funding Period: 
Tue, 09/01/2020 to Sat, 08/31/2024
Full Description: 

Nationally, a third of US students attend rural or remote schools, yet rural teachers receive fewer opportunities to work together and engage in professional learning than their suburban and urban counterparts. This, in turn, can reflect on the opportunities for rural students to learn the high quality, up-to-date science ideas, practices, and concepts that are required by state standards, especially those aligned with the Next Generation Science Standards (NGSS). To advance equitable opportunities for all students to learn science, the project team will design and provide an online course to support rural teachers who teach science in grades 6-12. The course will focus on improving classroom science assessment practices and instruction to meet the unique needs of rural educators and their students. Too often, science concepts are removed from the lives of rural students, although their homes, communities and natural environments are filled with ideas and experiences that can make science come alive. When teachers link assessment and instruction to students' everyday lives, students have enhanced interest in and identification with science. This, in turn, can lead more students to pursue science and applied science fields beyond high school, to broaden the STEM pipeline. In addition, students are better prepared to participate in science in their communities as empowered citizens. This study focuses on working with teachers to develop assessment practices that not only focus on the three NGSS dimensions of science ideas, practices and cross-cutting concepts, it also adds two more dimensions; teachers will develop assessment tasks interesting to students, and promote the development of their science identities. The researchers refer to this as 5D assessment.

Researchers at Colorado University Boulder and BSCS Science Learning will use design-based implementation research to collaboratively design an online course sequence that targets 5D assessment in science. The study will proceed in three phases: a rapid ethnographic study to assess the needs of teachers serving a variety of rural communities, a study of teachers' use of an online platform for their professional learning, and lastly an experimental study to research the effects of the online course on teacher and student outcomes. Researchers will recruit 10 teachers to take the on-line course for the professional development and collect data on participating teachers' implementation of the course ideas through classroom videotaping and surveys designed to capture their changing practices. In the third year of the project, researchers will conduct an impact study with 70 secondary science teachers taking the re-designed on-line course, and compare their outcomes with a "business-as-usual" condition. The impact of course will be measured by questionnaires that address their vision for teaching the NGSS and self-reported instructional practices; classroom observations; and, teacher-constructed student assessments. Student outcomes will be measured using science interest and identity surveys, and an examination of student work products that demonstrate students' ability to use the science and engineering practice of modeling, a practice likely to be encountered in all NGSS science classrooms. The project will identify conditions under which learning about 5D assessment task design can support instructional improvement, increase student interest in science and engineering, and enhance students' opportunities to learn. The researchers hypothesize that the online program will have a positive impact on teachers' vision, classroom practices, and their use of high-quality 5D tasks. They also hypothesize that teacher participation will result in significant increases in student interest in and identification with science, and that these effects will be mediated by teacher outcomes. Finally, the researchers hypothesize that effects will be equitable across demographic variables in rural communities.

Understanding the Role of Lesson Study in K-12 Mathematics and Science Teacher Education

This conference will shed light on how mathematics and science teacher educators are currently using lesson study to prepare pre-service teachers. The project will improve teacher educators' understanding of how lesson study can be optimized to teach pre-service teachers which will help bring this technique to the future teachers in their programs.

Lead Organization(s): 
Award Number: 
2010137
Funding Period: 
Mon, 06/15/2020 to Mon, 05/31/2021
Full Description: 

This conference will shed light on how mathematics and science teacher educators are currently using lesson study to prepare pre-service teachers. Lesson study is a structured process for teachers to study content and curriculum, carefully plan lessons to test a researchable question about student learning, teach the lesson in front of other professionals who help gather data, and use that data to evaluate the efficacy of the instruction for the students. With its focus on researching the connection between lesson enactment and student learning, lesson study contains structures for connecting practice-based teacher education to schools and classrooms. By evaluating the efficacy of the instruction, the outcomes, positive or negative, can be applied to other relevant instruction. The use of lesson study in college classes for pre-service teachers is relatively new in the United States, but it is becoming more popular. Because lesson study has been used primarily for in-service professional development of teachers, little is known about how it can be optimally employed for pre-service teacher education. This project will improve teacher educators' understanding of how lesson study can be optimized to teach pre-service teachers which will help bring this technique to the future teachers in their programs. When pre-service teachers are better prepared, high quality mathematics and science instruction may be expanded to more schools, giving more K-12 students improved opportunities to learn these subjects.

This project will support twenty-four mathematics and science teacher educators to collaborate in identifying their pedagogical goals for using lesson study and the enabling and constraining factors for its implementation that they perceive. Given that universities and schools have variance in their structures and focus, teacher educators will identify any modifications they have made to the lesson study process considering their context. By collaboratively identifying pedagogical goals, enabling and constraining implementation factors, and evidence-based adjustments to the lesson study process, this project will clarify the lesson study practices of the participants. The project will yield an edited book for other teacher educators to deploy lesson study in their teacher education programs, building from what is currently known and setting a trajectory for future pre-service teacher lesson study and research. Additionally, the project will establish a baseline network of teacher educators using lesson study within teacher education that can be built upon in the future.

Building Environmental and Educational Technology Competence and Leadership Among Educators: An Exploration in Virtual Reality Professional Development

This project will bring locally relevant virtual reality (VR) experiences to teachers and students in areas where there is historically low participation of women and underrepresented minorities in STEM. This exploratory project will support the professional growth and development of current middle and high school STEM teachers by providing multiyear summer training and school year support around environmental sciences themed content, implementing VR in the classroom, and development of a support community for the teachers.

Lead Organization(s): 
Award Number: 
2010563
Funding Period: 
Mon, 06/15/2020 to Wed, 05/31/2023
Full Description: 

Many of the nation's most vulnerable ecosystems exist near communities with scant training opportunities for teachers and students in K-12 schools. The Louisiana wetlands is one such example. Focusing on these threatened natural environments and their connection to flooding will put science, technology, engineering, and mathematics (STEM) concepts in a real-world context that is relatable to students living in these areas while integrating virtual reality technology. This technology will allow students in rural and urban schools lacking resources for field trips to be immersed into simulated field experiences. This exploratory project will support the professional growth and development of current middle and high school STEM teachers by providing multiyear summer training and school year support around three specific areas: (1) environmental sciences themed content; (2) implementing virtual reality (VR) in the classroom, and (3) development of a support community for the teachers. Findings from this project will advance the knowledge of the most effective components in professional development for teachers to incorporate new knowledge into their classrooms. This project will bring locally relevant VR experiences to teachers and students in areas where there is historically low participation of women and underrepresented minorities in STEM. Through new partnerships formed with collaborators, the results of this project will be shared broadly in informal and formal education environments including public outreach events for an increase in public scientific literacy and public engagement.

This project will expand the understanding of the impact that a multi-layered professional development program will have on improving the self-efficacy of teachers in STEM. This project will add to the field's knowledge tied to the overall research question: What are the experiences of secondary STEM teachers in rural and urban schools who participate in a multiyear professional development (PD) program? This project will provide instructional support and PD for two cohorts of ten teachers in southeastern Louisiana. Each summer, teachers will complete a two-week blended learning PD training, and during the academic year, teachers will participate in an action research community including PD meetings and monthly Critical Friends Group meetings. A longitudinal pre-post-post design will be employed to analyze whether the proposed method improves teacher's self-efficacy, instructional practices, integration of technology, and leadership as the teachers will deploy VR training locally to grow the base of teachers integrating this technology into their curriculum. The findings of this project will improve understanding of how innovative place-based technological experiences can be brought into classrooms and shared through public engagement.

Synchronous Online Video-Based Development for Rural Mathematics Coaches (Collaborative Research: Amador)

This project will create a fully online video-based model for mathematics teacher professional development focused on supporting mathematics coaches in rural contexts, building on the investigators' previous work focused on online professional learning opportunities for mathematics teachers in rural contexts.

Lead Organization(s): 
Award Number: 
2006353
Funding Period: 
Fri, 05/15/2020 to Tue, 04/30/2024
Full Description: 

Mathematics coaching is a research-based method to improve teacher quality, yet there is little research on teaching and coaching mathematics in rural contexts. In addition, mathematics coaches in rural contexts frequently work in isolation with little access to professional learning opportunities to support their coaching practice. This project will create a fully online video-based model for mathematics teacher professional development focused on supporting mathematics coaches in rural contexts, building on the investigators' previous work focused on online professional learning opportunities for mathematics teachers in rural contexts. Results from the previous project focused on rural teachers and their coaches show that the professional development model increased connections between what teachers notice about student thinking and broader principles of teaching and learning, that teachers were able to enact stronger levels of ambitious mathematics instruction, and that teachers who received coaching showed a stronger focus on math content and instructional practice. This extension of the model to coaches includes an online content-focused coaching course, cycles of one-on-one video-based coaching, and an online video club to analyze coaching practice. The video clubs will be structured as a graduated model that will begin with facilitation by mentor coaches and move into coach participants facilitating their own sessions.

Three cohorts of 12 coach participants will be recruited, with one cohort launching each year. In the first year, coaches will participate in four 2-hour synchronous content-focused course meetings, two coaching cycles with a mentor coach, and four video club meetings. In the second year, cohorts will conduct and facilitate four video club meetings. Research on impact follows a design-based model, with iterative cycles of design and revision of the online model. An ongoing analysis of 15-20% of the data collected each year will be used to inform revisions to the model from year to year, with fuller data analysis ongoing throughout the project. Participating coaches will be engaged in a noticing interview and surveys to assess changes in their perceptions and practices as coaches. Each coach participant will record one coaching interaction as data to assess changes in coaching practices. Patterns of participation and artifacts from the online course will be analyzed. Coaching cycle meetings and video club meetings will be recorded and transcribed. The Learning to Notice framework will be used as an analytical lens for describing changes in coaching practice.

The Discovery Research preK-12 program (DRK-12) seeks to significantly enhance the learning and teaching of science, technology, engineering and mathematics (STEM) by preK-12 students and teachers, through research and development of innovative resources, models and tools. Projects in the DRK-12 program build on fundamental research in STEM education and prior research and development efforts that provide theoretical and empirical justification for proposed projects.

This award reflects NSF's statutory mission and has been deemed worthy of support through evaluation using the Foundation's intellectual merit and broader impacts review criteria.

Synchronous Online Video-Based Development for Rural Mathematics Coaches (Collaborative Research: Choppin)

This project will create a fully online video-based model for mathematics teacher professional development focused on supporting mathematics coaches in rural contexts, building on the investigators' previous work focused on online professional learning opportunities for mathematics teachers in rural contexts.

Lead Organization(s): 
Award Number: 
2006263
Funding Period: 
Fri, 05/15/2020 to Tue, 04/30/2024
Full Description: 

Mathematics coaching is a research-based method to improve teacher quality, yet there is little research on teaching and coaching mathematics in rural contexts. In addition, mathematics coaches in rural contexts frequently work in isolation with little access to professional learning opportunities to support their coaching practice. This project will create a fully online video-based model for mathematics teacher professional development focused on supporting mathematics coaches in rural contexts, building on the investigators' previous work focused on online professional learning opportunities for mathematics teachers in rural contexts. Results from the previous project focused on rural teachers and their coaches show that the professional development model increased connections between what teachers notice about student thinking and broader principles of teaching and learning, that teachers were able to enact stronger levels of ambitious mathematics instruction, and that teachers who received coaching showed a stronger focus on math content and instructional practice. This extension of the model to coaches includes an online content-focused coaching course, cycles of one-on-one video-based coaching, and an online video club to analyze coaching practice. The video clubs will be structured as a graduated model that will begin with facilitation by mentor coaches and move into coach participants facilitating their own sessions.

Three cohorts of 12 coach participants will be recruited, with one cohort launching each year. In the first year, coaches will participate in four 2-hour synchronous content-focused course meetings, two coaching cycles with a mentor coach, and four video club meetings. In the second year, cohorts will conduct and facilitate four video club meetings. Research on impact follows a design-based model, with iterative cycles of design and revision of the online model. An ongoing analysis of 15-20% of the data collected each year will be used to inform revisions to the model from year to year, with fuller data analysis ongoing throughout the project. Participating coaches will be engaged in a noticing interview and surveys to assess changes in their perceptions and practices as coaches. Each coach participant will record one coaching interaction as data to assess changes in coaching practices. Patterns of participation and artifacts from the online course will be analyzed. Coaching cycle meetings and video club meetings will be recorded and transcribed. The Learning to Notice framework will be used as an analytical lens for describing changes in coaching practice.

The Discovery Research preK-12 program (DRK-12) seeks to significantly enhance the learning and teaching of science, technology, engineering and mathematics (STEM) by preK-12 students and teachers, through research and development of innovative resources, models and tools. Projects in the DRK-12 program build on fundamental research in STEM education and prior research and development efforts that provide theoretical and empirical justification for proposed projects.

This award reflects NSF's statutory mission and has been deemed worthy of support through evaluation using the Foundation's intellectual merit and broader impacts review criteria.

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