This book is a guide for teachers, student teachers, teacher educators, science education researchers and curriculum developers who wish to get to grips with the vast and complex literature encompassing the history of science, philosophy of science and sociology of science (HPS).

Science is a way of knowing about the world. At once a process, a product, and an institution, science enables people to both engage in the construction of new knowledge as well as use information to achieve desired ends. Access to scienceâ€"whether using knowledge or creating itâ€"necessitates some level of familiarity with the enterprise and practice of science: we refer to this as science literacy. Science literacy is desirable not only for individuals, but also for the health and well- being of communities and society. More than just basic knowledge of science facts, contemporary definitions of science literacy have expanded to include understandings of scientific processes and practices, familiarity with how science and scientists work, a capacity to weigh and evaluate the products of science, and an ability to engage in civic decisions about the value of science. Although science literacy has traditionally been seen as the responsibility of individuals, individuals are nested within communities that are nested within societiesâ€"and, as a result, individual science literacy is limited or enhanced by the circumstances of that nesting. Science Literacy studies the role of science literacy in public support of science. This report synthesizes the available research literature on science literacy, makes recommendations on the need to improve the understanding of science and scientific research in the United States, and considers the relationship between scientific literacy and support for and use of science and research.

This book presents presents the theory behind the development of the 2009 PISA survey.

Teaching Primary Science Constructively helps pre-service teachers to create effective science learning experiences for primary students by using a constructivist approach to learning. This best-selling text explains the principles of constructivism, the implications for learning and teaching and discusses core strategies for developing science understanding and science inquiry processes and skills. Part 2 provides research-based ideas for implementing a constructivist approach within a number of content strands. Throughout there are strong links to the key ideas, themes and terminology of the latest Australian Curriculum: Science.

This edited volume discusses the need to increase quantity and enhance quality of science education focused on preparing rural students to thrive in an interconnected, interdependent, and complex world. It acknowledges that globally integrated education incorporates local knowledge and culture with global trends. Additionally it highlights globally competent science teaching is not included in most preparation programs, and teachers enter schools unprepared to address students’ needs. Rural schools lack opportunities to keep up with reform efforts and may have limited experiences with diversity, particularly at the global level. These chapters describe globalization in authors’ respective academic institutions by sharing global competence action research projects for preservice teachers. The studies presented were conducted in elementary and secondary science methods, and science content courses. The book’s research is unique as the contributors have carried out action research in science teacher preparation programs and participated in peer discussions that helped them fill gaps in global science teaching while advancing the field of teacher preparation programs.

Teaching Primary Science Constructively helps readers to create effective science learning experiences for primary students by using a constructivist approach to learning. This best-selling text explains the principles of constructivism and their implications for learning and teaching, and discusses core strategies for developing science understanding and science inquiry processes and skills. Chapters also provide research-based ideas for implementing a constructivist approach within a number of content strands. Throughout there are strong links to the key ideas, themes and terminology of the revised Australian Curriculum: Science. This sixth edition includes a new introductory chapter addressing readers' preconceptions and concerns about teaching primary science.

Socioscientific issues require individuals to use moral and ethical considerations to help in their evaluation of evidence and decision making, entailing controversial scientific phenomena. Such issues include genetic engineering and biotechnology. Socioscientific issues pedagogy has the potential to enhance students’ overall conceptual understanding of scientific phenomena that affect the daily lives of people across the globe. Socioscientific Issues-Based Instruction for Scientific Literacy Development is a critical scholarly publication that examines the development of a research-based integrated socioscientific issues pedagogy for use in the K-12 system, teacher education preparation, and informal education centers. The publication focuses on science education researchers and pre-service and in-service teachers’ abilities to design and implement meaningful learning opportunities for students to use rationalistic, intuitive, and emotive perspectives as they engage in information reasoning on scientific topics, such as climate change and CRISPR, that are of utmost importance. Teachers in the K-12 system and informal education settings will be able to use this text to enhance scientific literacy among their students. Instructors in teacher preparation programs will be able to use this research-based text to improve pre-service and in-service teachers’ abilities to use socioscientific issues pedagogy to enhance scientific literacy among K-12 students. Additionally, audiences including researchers, administrators, academicians, policymakers, and students will find this book beneficial for their studies.

Education has been considered in all times to be an instrument of social change. This objective cannot be attained without having improved the class room practices. Education is the learning of knowledge, information and skills during the course of life. Teachers may draw on many subjects, including reading, writing, mathematics, science and history. Teachers in specialized professions such as astrophysics, law, or Zoology may teach only a certain subject, usually as professors at institutions of higher learning.

Issues relating to values have always had a place in the school science curriculum. Sometimes this has been only in terms of the inclusion of topics such as 'the nature of science' and/or 'scientific method' and/or particular intentions for laboratory work that relate to 'scientific method.'sometimes it has been much broader, for example in curricula with STS emphases. Of importance to aspects of this proposal is that different countries/cultures have had different traditions in terms of the place of values in the school [science] curriculum. One obvious very broad difference of this form is the central place in [science] education thinking in many European countries of bildung, and the complete absence of this construct from most [science] curriculum thinking in English speaking contexts. There are numbers of such country/cultural differences. In the 1990s many countries moved towards various conceptualizations of Outcomes Based Education - OBE (sometimes so labelled and sometimes not). It was usual (but not universal) for OBE focused science curricula to have constrained views of the values that should be implicit and explicit in curriculum; that is views concerned only with 'the nature of science' and 'scientific method' (both usually seen as quite unproblematic). Currently there are a number of education systems that are changing again, and choosing to move away from Outcomes Based Education (for example, South Africa and several Australian states). One of the most interesting features of many of these movements is the re-embracing of a wider view of the science curriculum, including a reconsideration of the nature and place of the values associated with science in the purposes for and approaches to science education.

Modern science communication has emerged in the twentieth century as a field of study, a body of practice and a profession—and it is a practice with deep historical roots. We have seen the birth of interactive science centres, the first university actions in teaching and conducting research, and a sharp growth in employment of science communicators. This collection charts the emergence of modern science communication across the world. This is the first volume to map investment around the globe in science centres, university courses and research, publications and conferences as well as tell the national stories of science communication. How did it all begin? How has development varied from one country to another? What motivated governments, institutions and people to see science communication as an answer to questions of the social place of science? Communicating Science describes the pathways followed by 39 different countries. All continents and many cultures are represented. For some countries, this is the first time that their science communication story has been told.