The solving of problems in biochemistry often uses concepts from multiple disciplines such as chemistry and biology. Chemical identity (CI) is a foundational concept in the field of chemistry, and the knowledge, thinking, and practices associated with CI are used to answer the following questions: “What is this substance?” and “How is it different from other substances?” In this study, we examined the relevance of CI in biochemical contexts and first explored the ways in which practicing biochemists consider CI relevant in their work.
Flourishing in today's global society requires citizens that are both intelligent consumers and producers of scientific understanding. Indeed, the modern world is facing ever‐more complex problems that require innovative ways of thinking about, around, and with science. As numerous educational stakeholders have suggested, such skills and abilities are not innate and must, therefore, be taught (e.g., McNeill & Krajcik, Journal of Research in Science Teaching, 45(1), 53–78. 2008).
To learn more, visit https://www.acs.org/content/acs/en/meetings/national-meeting.html.
- Ellen Yezierski, Dillon Frank, Nicholas Spurgus, and Justin Pratt, Miami University (Project: Further Development and Testing of the Target Inquiry Model for Middle and High School Science Teacher Professional Development (Collaborative Research: Yezierski))
Explore methods and challenges associated with supporting and evaluating scientific modeling in K–12 classrooms in this structured poster session.
In this interactive panel symposium, presenters will draw from a set of active DR K-12 projects to explore a diverse array of resources, models, and tools (RMTs) designed to operationalize varying perspectives on scientific modeling in elementary, middle, and secondary classrooms across disciplinary domains.
The recent revisions to the advanced placement (AP) chemistry curriculum promote deep conceptual understanding of chemistry content over more rote memorization of facts and algorithmic problem solving. For many teachers, this will mean moving away from traditional worksheets and verification lab activities that they have used to address the vast amounts of content in the AP chemistry course. Moreover, a substantial shift in teachers’ beliefs about teaching and learning of chemistry will be needed to facilitate the transformation of their instructional practices.
Leaders of three DR K-12 projects identify successful instructional strategies for using technology-enhanced curriculum materials, games, and models to achieve the NGSS practices.
The media, the public, and, indeed, many teachers have significantly criticized the introduction of the Common Core, citing concerns such as that it overcomplicates simple topics, diminishes innovation, and ignores equity issues. Following the recent introduction of the Next Generation Science Standards (NGSS), we need compelling examples and powerful research to prevent premature criticism and ensure successful implementation.
Participants engage in and provide feedback on digital interactive learning experiences that use National Renewable Energy Laboratory life cycle data and help teachers understand key energy concepts. Please bring your laptop.
Biological Sciences Curriculum Study (BSCS) and project partners are developing an online course for high school science teachers. The purpose of the course is to help teachers understand key energy concepts in alternative energy contexts. The course includes three interactive learning experiences (interactives) that use life cycle data from the National Renewable Energy Lab (NREL).
To learn more, visit http://www.acs.org/content/acs/en/meetings/expositions.html.
DR K-12 Presenter: