In pedagogical fields, there has been increased attention in helping students flourish in science-related occupations. This book centers on metacognitive and self-regulatory practices as predictors of academic achievement. The purpose of Mastering Science with Metacognitive and Self-Regulatory Strategies: A Teacher-Researcher Dialogue of Practical Applications for Adolescents is to provide information on both theoretical and practical understandings of the connection between metacognition, self-regulation, and academic performance.Self-regulation centers on an individual's behavior to accomplish a specific task through planning, monitoring, and self-reflecting in academic tasks. Based on social cognitive theory, there are three main aspects of self-regulation: a) the triadic social cognitive model, b) the multilevel training model, and c) the cyclical self-regulatory feedback loop model. In addition, metacognitive awareness is essential in these processes with the end goal of heightening academic performance.This book outlines how to integrate metacognitive and self-regulatory strategies within a scientific context. In particular, the work emphasizes transitioning students from novice skill levels to more advanced cognitive development through metacognitive and self-regulatory practices. In addition, relevant context specific strategies and examples are described to promote high levels of science performance in both formal and informal learning contexts, including citizen science activities. Practical examples appear throughout the work in conjunction with theoretical explanations including guidelines related to lesson plan designs, scaffolding, and math integration. Furthermore, these strategies are extended in discussions of advancing at-risk students and promoting STEM career motivation.The overarching aim of Mastering Science with Metacognitive and Self-Regulatory Strategies: A Teacher-Researcher Dialogue of Practical Applications for Adolescents is to highlight the interdependence between motivation, self-regulation, and achievement within a scientific context from a teacher-researcher perspective. This work may be of interest to researchers and college students interested in metacognitive and self-regulatory functions, as well as administrators, practitioners, and parents focused on encouraging student science achievement, and ultimately, STEM career motivation.
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Language: en
Pages: 250
Pages: 250
In pedagogical fields, there has been increased attention in helping students flourish in science-related occupations. This book centers on metacognitive and self-regulatory practices as predictors of academic achievement. The purpose of Mastering Science with Metacognitive and Self-Regulatory Strategies: A Teacher-Researcher Dialogue of Practical Applications for Adolescents is to provide information
Language: en
Pages: 512
Pages: 512
Udvalgte artikler fra 1985-2005, fordelt på 8 temaer: The relationship between science and science education ; Aims of the formal science curriculum and the needs of the students ; Science education in the formal curriculum ; Assessment in formal science education ; Teaching in science education ; Learning in science
Language: en
Pages: 3536
Pages: 3536
Over the past century, educational psychologists and researchers have posited many theories to explain how individuals learn, i.e. how they acquire, organize and deploy knowledge and skills. The 20th century can be considered the century of psychology on learning and related fields of interest (such as motivation, cognition, metacognition etc.)
Language: en
Pages: 287
Pages: 287
Unique and stimulating, this book addresses metacognition in both the neglected area of teaching and the more well-established area of learning. It addresses domain-general and domain-specific aspects of metacognition, including applications to the particular subjects of reading, speaking, mathematics, and science. This collection spans theory, research and practice related to
Language: en
Pages: 304
Pages: 304
This edited volume explores key areas of interests in Singapore math and science education including issues on teacher education, pedagogy, curriculum, assessment, teaching practices, applied learning, ecology of learning, talent grooming, culture of science and math, vocational education and STEM. It presents to policymakers and educators a clear picture of