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This book discusses the importance of identifying and addressing misconceptions for the successful teaching and learning of science across all levels of science education from elementary school to high school. It suggests teaching approaches based on research data to address students’ common misconceptions. Detailed descriptions of how these instructional approaches can be incorporated into teaching and learning science are also included. The science education literature extensively documents the findings of studies about students’ misconceptions or alternative conceptions about various science concepts. Furthermore, some of the studies involve systematic approaches to not only creating but also implementing instructional programs to reduce the incidence of these misconceptions among high school science students. These studies, however, are largely unavailable to classroom practitioners, partly because they are usually found in various science education journals that teachers have no time to refer to or are not readily available to them. In response, this book offers an essential and easily accessible guide.
This book is about an experimental study carried out by the author to find out the effect of ecological intelligence on developing ecological sensitivity among prospective teachers. The experiment is conducted to enhance the prospective teachers’ ecological intelligence in order to develop their ecological sensitivity which is expected to be imbibed in student community for ensuring a safe environment to all living beings. The author has adopted Daniel Goleman’s idea of ecological intelligence and developed the concept of ecological sensitivity from the perspective of the mental disposition of an individual to deal effectively the dynamic environment with empathy by taking initiatives to mitigate the environmental problems for sustainable development since the prevailing environmental condition demands the human beings to quickly respond to the environmental problems in order to protect the environment not only for the continued survival of the present generation, but also to ensure safe environment for the future generations.
Bringing together a wide collection of ideas, reviews, analyses and new research on particulate and structural concepts of matter, Concepts of Matter in Science Education informs practice from pre-school through graduate school learning and teaching and aims to inspire progress in science education. The expert contributors offer a range of reviews and critical analyses of related literature and in-depth analysis of specific issues, as well as new research. Among the themes covered are learning progressions for teaching a particle model of matter, the mental models of both students and teachers of the particulate nature of matter, educational technology, chemical reactions and chemical phenom...
Securing the future of the human race will require an improved understanding of the environment as well as of technological solutions, mindsets and behaviors in line with modes of development that the ecosphere of our planet can support. Some experts see the only solution in a global deflation of the currently unsustainable exploitation of resources. However, sustainable development offers an approach that would be practical to fuse with the managerial strategies and assessment tools for policy and decision makers at the regional planning level. Environmentalists, architects, engineers, policy makers and economists will have to work together in order to ensure that planning and development can meet our society's present needs without compromising the security of future generations. Better planning methods for urban and rural expansion could prevent environmental destruction and imminent crises. Energy, transport, water, environment and food production systems should aim for self-sufficiency and not the rapid depletion of natural resources. Planning for sustainable development must overcome many complex technical and social issues.
A practical guide to cultivating expansive understandings of climate change and environmental regeneration in K–12 students through classroom instructional practices and curricula. Teaching Climate Change lays out a comprehensive, NGSS-aligned approach to climate change education that builds in-depth knowledge of the subject, empowers students, and promotes a social justice mindset. In this fortifying and inspiring work, Mark Windschitl guides classroom teachers and educational leaders through an ambitious multilevel, multidisciplinary framing of climate change education as an integral element of school curricula. Exuding hope for the future, Windschitl emphasizes the big picture of resear...
This book reflects on science education in the first 20 years of the 21st century in order to promote academic dialogue on science education from various standpoints, and highlights emergent new issues, such as education in science education research. It also defines new research agendas that should be “moved forward” and inform new trajectories through the rest of the century. Featuring 21 thematically grouped chapters, it includes award-winning papers and other significant papers that address the theme of the 2018 International Science Education Conference.
This edited volume addresses the dynamic global contexts redefining Asia Pacific higher education, including cross-border education, capacity and national birthrate profiles, pressures created within ranking/status systems, and complex shifts in the meanings of the public good that influence public education in an increasingly privatized world.
Educating the next generation of chemists about green chemistry issues, such as waste minimisation and clean synthesis, is vital for environmental sustainability. This book enables green issues to be taught from the underlying principles of all chemistry courses rather than in isolation. Chapters contributed by green chemistry experts from across the globe, with experience in teaching at different academic levels, provide a coherent overview of possible approaches to incorporate green chemistry into existing curriculums. Split into three sections, the book first introduces sustainability and green chemistry education , before focussing on high school green chemistry education initiatives and green chemistry education at undergraduate and post-graduate levels. Useful laboratory experiments and in-class activities to aid teaching are included. This book is a valuable resource for chemical educators worldwide who wish to integrate green chemistry into chemical education in a systematic and holistic way. It is also of interest to anyone wanting to learn more about the different approaches adopted around the world in sustainability education.
This book discusses the importance of identifying and addressing misconceptions for the successful teaching and learning of science across all levels of science education from elementary school to high school. It suggests teaching approaches based on research data to address students’ common misconceptions. Detailed descriptions of how these instructional approaches can be incorporated into teaching and learning science are also included. The science education literature extensively documents the findings of studies about students’ misconceptions or alternative conceptions about various science concepts. Furthermore, some of the studies involve systematic approaches to not only creating but also implementing instructional programs to reduce the incidence of these misconceptions among high school science students. These studies, however, are largely unavailable to classroom practitioners, partly because they are usually found in various science education journals that teachers have no time to refer to or are not readily available to them. In response, this book offers an essential and easily accessible guide.