17th Annual Keefe-Bruyette Symposium; Hartford, CT
To learn more, visit https://events.ctnow.com/events/view/447568/17th_annual_keefe_bruyette_…
DRK-12 Presenters:
- Alissa Lange, East Tennessee State University
To learn more, visit https://events.ctnow.com/events/view/447568/17th_annual_keefe_bruyette_…
DRK-12 Presenters:
The Next Generation Science Standards (NGSS) and the Framework for K-12 Science Education (NRC, 2012) on which they are based, describe a new vision for science education that includes having students learn science in a way that more closely aligns to how scientists and engineers work and think. Accomplishing this goal will require teacher educators to make important shifts in the ways they prepare future science teachers (NRC, 2012). Many science teaching methods courses are being reformed to better support future science teachers to meet the ambitious goals of the NGSS.
This study utilized the methodology of Improvement Science “Plan, Do Study, Act” cycles in order to design a Three-Dimensional Mapping Tool (3D Map) as a visual scaffold for use in science teaching methods courses to support preservice teachers in unpacking the components of NGSS and to promote discourse related to the three-dimensionality of planning instruction.
Ensuring that all students, including English language learners (ELLs) who speak English as a second language, succeed in science is more challenging with a shift towards learning through language-intensive science practices suggested by the Next Generation Science Standards (NGSS). Interactive visualization technologies have the potential to support science learning for all students, including ELLs, by providing explicit representations of unobservable scientific systems.
In this study, we examine the short-term and long-term effects of interactive visualizations in improving linguistically diverse eighth-grade students’ understanding of properties of matter and chemical reactions during inquiry instruction.
The use of external representations has a potential to facilitate inquiry learning, especially in hypothesis generation and scientific reasoning, which are typical difficulties encountered by students. This study proposes and investigates the effects of a three‐dimensional thinking graph (3DTG) that allows learners to combine in a single image, problem information, subject knowledge (key concepts and their relationships), and the hypothesizing and reasoning process involved in exploring a problem, to support inquiry learning.
This study proposes and investigates the effects of a three‐dimensional thinking graph (3DTG) that allows learners to combine in a single image, problem information, subject knowledge (key concepts and their relationships), and the hypothesizing and reasoning process involved in exploring a problem, to support inquiry learning.
In A Framework for K-12 Science Education, the National Research Council frames inclusive science instruction as a collection of strategies for teachers to engage students. In this conceptual article, we reframe inclusive science instruction by examining the literature in science and multicultural education and describe five elements to support teachers in realizing inclusive science instruction as a pedagogical shift.
In this conceptual article, we reframe inclusive science instruction by examining the literature in science and multicultural education and describe five elements to support teachers in realizing inclusive science instruction as a pedagogical shift.
The Next Generation Science Standards call for changes in not only what is taught in elementary science but also how students engage in the learning experience to develop understanding of core disciplinary ideas. In this study we examined 5th-grade teachers’ pedagogical content knowledge (PCK) for 1 particular core idea: the small particle model (SPM) of matter. We assessed teachers’ initial PCK through a lesson plan task, the Content Representation tool, and interviews and then adapted and tested a scoring rubric to facilitate comparison of teachers’ PCK.
In this study we examined 5th-grade teachers’ pedagogical content knowledge (PCK) for 1 particular core idea: the small particle model (SPM) of matter. We assessed teachers’ initial PCK through a lesson plan task, the Content Representation tool, and interviews and then adapted and tested a scoring rubric to facilitate comparison of teachers’ PCK.
This proof of concept study investigated a secondary science teacher preparation intervention in six university programs across Arizona, California, and Texas. Researchers and science method instructors (SMIs) collaboratively restructured respective science method courses to hold fidelity to an interrelated set of instructional practices that attend to science learning as envisioned in a Framework for K–12 Science Education, while also creating contextualized spaces for language and literacy development targeted to English learners (ELs), but also supportive of “mainstream” students.
This proof of concept study investigated a secondary science teacher preparation intervention in six university programs across Arizona, California, and Texas. Researchers and science method instructors (SMIs) collaboratively restructured respective science method courses to hold fidelity to an interrelated set of instructional practices that attend to science learning as envisioned in a Framework for K–12 Science Education, while also creating contextualized spaces for language and literacy development targeted to English learners (ELs), but also supportive of “mainstream” students.
This column provides how-to strategies and practical advice for the science teacher. A resource for integrating argumentation into your science classroom.
González-Howard, M., Marco-Bujosa, L., McNeill, K. L., Goss, M., & Loper, S. (2018). Teacher’s Toolkit: The Argumentation Toolkit. Science Scope.
This column provides how-to strategies and practical advice for the science teacher.
This column describes creating a classroom culture for engineering. Noting the importance of infiltration in the water cycle and in the supply of essential groundwater led the authors to develop an engineering activity in which students are challenged to build a stackable filter using the Earth process of infiltration as a model.
Kilpatrick, J., Marcum-Dietrich, N., Wallace, J., & Staudt, C. (2018). Engineering Encounters: Engineering a Model of the Earth as a Water Filter. Science and Children.
This column describes creating a classroom culture for engineering.
This column describes creating a classroom culture for engineering. Noting the importance of infiltration in the water cycle and in the supply of essential groundwater led the authors to develop an engineering activity in which students are challenged to build a stackable filter using the Earth process of infiltration as a model.
Kilpatrick, J., Marcum-Dietrich, N., Wallace, J., & Staudt, C. (2018). Engineering Encounters: Engineering a Model of the Earth as a Water Filter. Science and Children.
This column describes creating a classroom culture for engineering.