NotesFAQContact Us
Collection
Advanced
Search Tips
Laws, Policies, & Programs
Assessments and Surveys
What Works Clearinghouse Rating
Showing 1 to 15 of 96 results Save | Export
Peer reviewed Peer reviewed
Direct linkDirect link
Price, Gareth; Bevins, Stuart – School Science Review, 2021
This article offers an outline of 3D science that conceptualises science around three dimensions: domain knowledge, evidence-management procedures and psychological energy. We propose that this model could underpin a rigorous, effective and motivating approach to science education in schools. We show how self-determination theory offers useful…
Descriptors: Scientific Principles, Science Education, Models, Self Determination
Peer reviewed Peer reviewed
PDF on ERIC Download full text
Pallant, Amy; Lee, Hee-Sun – Journal of Geoscience Education, 2017
During the past several decades, there has been a growing awareness of the ways humans affect Earth systems. As global problems emerge, educating the next generation of citizens to be able to make informed choices related to future outcomes is increasingly important. The challenge for educators is figuring out how to prepare students to think…
Descriptors: Sustainability, Agriculture, Science Education, Science Curriculum
Peer reviewed Peer reviewed
Direct linkDirect link
Osborne, Jonathan – School Science Review, 2018
The USA has had a new set of science standards entitled the Next Generation Science Standards since 2014. While their adoption has not been ubiquitous, as curriculum choices are a state rather than a federal decision, they have been adopted by 19 states (plus the District of Columbia). Moreover, they have been influential on the curriculum choices…
Descriptors: Science Education, Academic Standards, Science Curriculum, Educational Innovation
Peer reviewed Peer reviewed
Direct linkDirect link
Sisk-Hilton, Stephanie; Ferner, Sarah Davies – Science and Children, 2022
The inclusion of engineering in the Next Generation Science Standards (NGSS) as a key component of K-12 science learning has provided both opportunities and challenges for elementary teachers. One challenge is integrating the design thinking processes that undergird engineering with core science concepts and current issues facing scientists and…
Descriptors: Engineering Education, Science Education, National Standards, Elementary School Teachers
Peer reviewed Peer reviewed
Direct linkDirect link
Gray, Kara E.; Wittmann, Michael C.; Vokos, Stamatis; Scherr, Rachel E. – Physical Review Physics Education Research, 2019
The Next Generation Science Standards (NGSS) provide a succession of objectives for energy learning and set an expectation for teachers to assess learners' representations of energy in a variety of science contexts. To support teachers in evaluating the extent to which representations of energy display NGSS objectives, we have (i) discerned the…
Descriptors: Energy, Models, Science Education, Scientific Concepts
Peer reviewed Peer reviewed
Direct linkDirect link
Ariza, Yefrin; Lorenzano, Pablo; Adúriz-Bravo, Agustín – Science & Education, 2016
There is nowadays consensus in the community of didactics of science (i.e. science education understood as an academic discipline) regarding the need to include the philosophy of science in didactical research, science teacher education, curriculum design, and the practice of science education in all educational levels. Some authors have…
Descriptors: Science Education, Educational Philosophy, Scientific Principles, Science Teachers
Peer reviewed Peer reviewed
Direct linkDirect link
Kamarainen, Amy M.; Metcalf, Shari; Grotzer, Tina; Dede, Chris – Journal of Science Education and Technology, 2015
Recent reform efforts and the next generation science standards emphasize the importance of incorporating authentic scientific practices into science instruction. Modeling can be a particularly challenging practice to address because modeling occurs within a socially structured system of representation that is specific to a domain. Further, in the…
Descriptors: Ecology, Science Instruction, Models, Epistemology
Peer reviewed Peer reviewed
Direct linkDirect link
Hare, Stephanie R.; Tantillo, Dean J. – Journal of Chemical Education, 2017
When new concepts, models, or theories are introduced in a course, their presentation should be accurate, even if depth is not the goal. In a recent publication in this Journal, the Woodward-Hoffmann rules were invoked in the context of a new laboratory experiment, but the associated description was inaccurate. Here we aim to clarify the…
Descriptors: Chemistry, Organic Chemistry, Laboratory Experiments, Science Instruction
Peer reviewed Peer reviewed
Direct linkDirect link
Duran, Emilio; Worch, Eric; Boros, Amy; Keeley, Page – Science and Children, 2017
One of the most powerful strategies to support next generation science instruction is the use of instructional models. The Biological Sciences Curriculum Study 5E (Engage, Explore, Explain, Elaborate, and Evaluate) instructional model is arguably the most widely used version of a learning cycle in today's classrooms. The use of the 5Es as an…
Descriptors: Science Instruction, Models, Biology, Science Curriculum
Peer reviewed Peer reviewed
Direct linkDirect link
Develaki, Maria – Interchange: A Quarterly Review of Education, 2016
Models and modeling are core elements of scientific methods and consequently also are of key importance for the conception and teaching of scientific methodology. The epistemology of models and its transfer and adaption to nature of science education are not, however, simple themes. We present some conceptual units in which school science models…
Descriptors: Models, Scientific Methodology, Science Instruction, Epistemology
Peer reviewed Peer reviewed
Direct linkDirect link
Brady, Corey; Holbert, Nathan; Soylu, Firat; Novak, Michael; Wilensky, Uri – Journal of Science Education and Technology, 2015
In this article, we introduce a class of constructionist learning environments that we call "Emergent Systems Sandboxes" ("ESSs"), which have served as a centerpiece of our recent work in developing curriculum to support scalable model-based learning in classroom settings. ESSs are a carefully specified form of virtual…
Descriptors: Science Instruction, Models, Educational Technology, Simulated Environment
Peer reviewed Peer reviewed
PDF on ERIC Download full text
Anderson, Elsa; Dryden, Lisa; Garza, Esther; Robles-Goodwin, Patsy J. – English in Texas, 2017
This article describes an instructional model for integrating children's literature and language arts into the elementary school science curriculum. This science-literacy instructional model is an adaptation from the original 5E model of scientific inquiry. The model demonstrates how reading, writing, listening, and speaking can be incorporated…
Descriptors: Models, Teaching Methods, Childrens Literature, Language Arts
Peer reviewed Peer reviewed
Direct linkDirect link
Yacoubian, Hagop A. – Canadian Journal of Science, Mathematics and Technology Education, 2015
In this article, I introduce a framework for guiding future citizens to think critically about nature of science (NOS) and "with" NOS as they engage in socioscientific decision making. The framework, referred to as the critical thinking--nature of science (CT-NOS) framework, explicates and targets both NOS as a learning objective and NOS…
Descriptors: Science Education, Critical Thinking, Scientific Principles, Science and Society
Peer reviewed Peer reviewed
Direct linkDirect link
Posthuma-Adams, Erica – Journal of Chemical Education, 2014
As advanced placement (AP) teachers strive to implement the changes outlined in the AP chemistry redesign, they will have the opportunity to reflect on and evaluate their current practices. For many AP teachers, the new focus on conceptual understanding, reasoning, inquiry, and critical thinking over memorization and algorithmic problem solving…
Descriptors: Chemistry, Science Instruction, Science Curriculum, Advanced Placement
Peer reviewed Peer reviewed
Direct linkDirect link
Manthey, Seth; Brewe, Eric – CBE - Life Sciences Education, 2013
University Modeling Instruction (UMI) is an approach to curriculum and pedagogy that focuses instruction on engaging students in building, validating, and deploying scientific models. Modeling Instruction has been successfully implemented in both high school and university physics courses. Studies within the physics education research (PER)…
Descriptors: Physics, Self Efficacy, Curriculum Design, Biology
Previous Page | Next Page »
Pages: 1  |  2  |  3  |  4  |  5  |  6  |  7