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Historically, the mission of science, technology, engineering, and mathematics (STEM) schools emphasized providing gifted and talented students with advanced STEM coursework. However, a newer type of STEM school is emerging in the United States: inclusive STEM high schools (ISHSs). ISHSs have open enrollment and are focused on preparing underrepresented youth for the successful pursuit of advanced STEM studies. They promise to provide a critical mass of nontraditional STEM students, defying stereotypes about who does STEM and creating positive STEM identities. In this article, we advance a conceptual framework designed to systematically capture the qualities of ISHSs that can provide exciting new possibilities for students and communities. An iterative review of the literature suggests 10 critical components that may work together across 3 dimensions: design, implementation, and outcomes. Our goal is to apply this framework in various school models to better understand the opportunity structures that emerge and to create a theory of action of ISHSs. [ABSTRACT FROM PUBLISHER]

To fully incorporate nature of science knowledge into classrooms, teachers must be both proficient in their own nature of science knowledge, but also skillful in translating their knowledge into a learning environment which assesses student knowledge. Twenty-eight inservice teachers enrolled in a graduate course which in part required a clinical interview. For the interview, teachers developed six increasingly difficult questions, interviewed a student, and analyzed the result. Findings show that while teachers needed scaffolding to write cognitively higher questions, they were, however, encouraged to shift their practice from asking questions that had one-word answers to engaging students in connecting knowledge. [ABSTRACT FROM AUTHOR]

The cyberinfrastucture is a broad informational network that entails connections to real-time data sensors as well as tools that permit visualization and other forms of analysis, and that facilitates access to vast scientific databases. This multifaceted network, already a major boon to scientific discovery, now shows exceptional promise in advancing educational goals, especially in fostering deep and authentic understanding in science and scientific practice. In this paper, we outline the key features of the cyberinfrastructure that make it far more than the latest technological innovation. In particular, we identify six cognitive affordances for education that are unique to the cyberinfrastructure and that, in combination, set it apart from its predecessors: (a) immediate original data, (b) distributed expert networks, (c) analytical and visualization tools, (d) instantaneous retrieval of source documents, (e) forums for public discourse, and (f) opportunities for metacognitive structuring of ill-defined problems. We conclude by drawing implications for students' engagement in science, building a new cadre of science, technology, education, and mathematics (STEM) professionals, and preparing of a scientifically literate citizenry for a world in which many key social issues are comprehended only through a scientific lens. [ABSTRACT FROM AUTHOR]

This research work examined the impact of a science-reading instructional sequence (InSciRead) on fourth-grade Spanish-English dual language learners' ability to monitor their comprehension of content-related (erosion, deposition, and transportation) texts. We used a quantitative measure of students' ability to detect incongruities in a related text, complemented with a qualitative analysis of the data. The study included 78 fourth-grade students (including eight with disabilities). The curriculum was generally successful, with significant progress shown in students' ability to monitor their comprehension after the intervention. [ABSTRACT FROM PUBLISHER]