An essay detailing the purposes, functions and benefits of academically productive talk including the Talk Goals and Moves chart.
Science is data-intensive, but today’s science education is not. In most classrooms, students’ work with data is limited to reading graphs prepared by others, or at best collecting simple data sets themselves. While these student-collected data sets allow students to begin building their data proficiency, the conclusions that can be drawn and the lessons that can be learned from these data are limited in scope and can sometimes be compromised by data quality.
The Oceans of Data project has made an attempt to define and confront what is “hard” for students and teachers who attempt to use large, online professional data sets. We feel passionately that it’s important for us to do this to prepare today’s students for tomorrow’s world.
Science is data-intensive, but today’s science education is not. In most classrooms, students’ work with data is limited to reading graphs prepared by others, or at best collecting simple data sets themselves. While these student-collected data sets allow students to begin building their data proficiency, the conclusions that can be drawn and the lessons that can be learned from these data are limited in scope and can sometimes be compromised by data quality.
The Oceans of Data project has made an attempt to define and confront what is “hard” for students and teachers who attempt to use large, online professional data sets. We feel passionately that it’s important for us to do this to prepare today’s students for tomorrow’s world.
A demonstration of the SmartGraphs software, and features of the authoring system, is available here: Authoring Demo. Concord is also making the authoring system available to any NSF-funded project that wants to incorporate Web-based SmartGraphs activities into its work. Activities run directly in a browser, so there is nothing to download or install. See http://smartgraphs.org for details about SmartGraphs.
SmartGraphs is free, open source software that helps students understand graphs and concepts represented in graphs (e.g., slope, velocity, half-life, global warming).
Due to the rapid advancements of information and communication technologies (ICTs), educational researchers argue that multimodal and new literacies should become common practices in schools. As new ICTs emerge and evolve, students need the new literacies skills and practices to successfully participate fully in the civic life of a global community. Are teachers prepared to integrate ICTs in the classroom to develop students’ new literacies skills? The purpose of this study is to suggest a new literacies framework that guides ICTs integration and supports scientific inquiry, as well as investigate middle school teachers’ confidence to practice new literacies in science classrooms. The study adopted mixed-methodology design, surveyed 32 middle school science teachers’ ICTs and new literacies skills, and randomly observed 15 teachers’ new literacies practices in the classrooms. The results revealed that even though teachers have high confidence in using ICTs, the meaningful technology integration and new literacies practices were scarcely observed in their classroom practices.
Jiang, Z. & O’Brien, G. (2012). Multiple Proof Approaches and Mathematical Connections. Mathematics Teacher, 105 (8), pp. 586–5
One of the most rewarding accomplishments of working with preservice secondary school mathematics teachers is helping them develop conceptually connected knowledge and see mathematics as an integrated whole rather than isolated pieces. The NCTM Connections Standard (2000) states: “Problem selection is especially important because students are unlikely to learn to make connections unless they are working on problems or situations that have the potential for suggesting such linkages” (p. 359).
To help students see and use the connections among various mathematical between this problem situation and various mathematical topics. In addition, their explorations
of multiple approaches to proofs led beyond proof as verification to more of illumination and systematization in understandable yet deep ways (de Villiers
1999); expanded their repertoire of problemsolving strategies; and developed their confidence, interest, ability, and flexibility in solving various types of new problems. These benefits, in turn, will be passed on to their own students.
Science education reforms, such as the introduction of inquiry into the classroom, represent second order educational changes (12,13). Although first order changes require small alterations of existing practices, second order changes challenge the structures and rules of schooling. Research on second order change has shown that, despite best efforts, most reforms are “either adapted to fit what existed or sloughed off, allowing the system to remain essentially untouched” (12, p. 343). RET’s seem to hold the most promise for supporting second order changes as represented by inquiry; however, given the difficulty in achieving and sustaining second order changes, the need for research into their influence is clear. This research project will focus on analyzing RET programs through description of their essential features, their efficacy in fostering teachers’ understanding and enactment of inquiry, their interaction with the personal characteristics of participating teachers, and an examination of the influence of teaching through inquiry on student learning in science.
A middle school mathematics teacher taught native English speakers for the first fifteen years of her career. As immigrants from other countries moved into the community and student demographics began to change, she realized that she was not prepared to teach mathematics to students who were English language learners (ELLs).
The demands that she faced are not unique. The recent growth of the ELL population in the United States has challenged teachers to identify effective strategies to meet the needs of ELL students and their families.
Equity in mathematics education should be one of the most important concerns of
teachers, administrators, policy makers, mathematicians, and mathematics educators. In fact, the Association of Mathematics Teacher Educator (AMTE), the National Council of Supervisors of Mathematics (NCSM), and the National Council of Teachers of Mathematics NCTM), three national organizations that support teacher educators, mathematics teachers, and teacher leaders, have made equity a priority for their organizations (Gutierrez et al. 2008). Position statements, standards documents, and various books identify key equity issues and recommend directions compelling all involved in the mathematics education of students to become aware of equity issues and to take steps toward eliminating the inequities that plague K-16 education.
More specifically the objectives of this presentation are to:
In this paper, we present an overview of the National Science Foundation (NSF) funded Knowledge for Algebra Teaching for Equity (KATE) Project and experiences from preservice teachers who are preparing for teaching middle grades mathematics. We highlight findings from a preliminary analysis of the effectiveness of virtual simulations of problem-based teaching of algebra concepts in enhancing preservice teachers' knowledge and skill in teaching diverse students.
