The aims of this book are: • to contribute to professional development of those directly involved in science education (science teachers, elementary and secondary science teacher advisors, researchers in science education, etc), • to contribute to the improvement of the quality of science education at all levels of education with the exploitation of elements from History of Science incorporated in science teaching –it is argued that through such approaches the students’ motivation can be raised, their romantic understanding can be developed and consequently their conceptual understanding of science concepts can be improved since these approaches make science more attractive to them– and • to contribute to the debate about science education at the international level in order to find new ways for further inquiry on the issues that the book is dealing with. The book is divided in two parts: The first expounds its philosophical and epistemological framework and the second combines theory and praxis, the theoretical insights with their practical applications.

This inaugural handbook documents the distinctive research field that utilizes history and philosophy in investigation of theoretical, curricular and pedagogical issues in the teaching of science and mathematics. It is contributed to by 130 researchers from 30 countries; it provides a logically structured, fully referenced guide to the ways in which science and mathematics education is, informed by the history and philosophy of these disciplines, as well as by the philosophy of education more generally. The first handbook to cover the field, it lays down a much-needed marker of progress to date and provides a platform for informed and coherent future analysis and research of the subject. The publication comes at a time of heightened worldwide concern over the standard of science and mathematics education, attended by fierce debate over how best to reform curricula and enliven student engagement in the subjects. There is a growing recognition among educators and policy makers that the learning of science must dovetail with learning about science; this handbook is uniquely positioned as a locus for the discussion. The handbook features sections on pedagogical, theoretical, national, and biographical research, setting the literature of each tradition in its historical context. It reminds readers at a crucial juncture that there has been a long and rich tradition of historical and philosophical engagements with science and mathematics teaching, and that lessons can be learnt from these engagements for the resolution of current theoretical, curricular and pedagogical questions that face teachers and administrators. Science educators will be grateful for this unique, encyclopaedic handbook, Gerald Holton, Physics Department, Harvard University This handbook gathers the fruits of over thirty years’ research by a growing international and cosmopolitan community Fabio Bevilacqua, Physics Department, University of Pavia

Science Teaching explains how history and philosophy of science contributes to the resolution of persistent theoretical, curricular, and pedagogical issues in science education. It shows why it is essential for science teachers to know and appreciate the history and philosophy of the subject they teach and how this knowledge can enrich science instruction and enthuse students in the subject. Through its historical perspective, the book reveals to students, teachers, and researchers the foundations of scientific knowledge and its connection to philosophy, metaphysics, mathematics, and broader social influences including the European Enlightenment, and develops detailed arguments about constructivism, worldviews and science, multicultural science education, inquiry teaching, values, and teacher education. Fully updated and expanded, the 20th Anniversary Edition of this classic text, featuring four new chapters—The Enlightenment Tradition; Joseph Priestley and Photosynthesis; Science, Worldviews and Education; and Nature of Science Research—and 1,300 references, provides a solid foundation for teaching and learning in the field.

This book offers a comprehensive introduction to Nature of Science (NOS), one of the most important aspects of science teaching and learning, and includes tested strategies for teaching aspects of the NOS in a variety of instructional settings. In line with the recommendations in the field to include NOS in all plans for science instruction, the book provides an accessible resource of background information on NOS, rationales for teaching these targeted NOS aspects, and – most importantly – how to teach about the nature of science in specific instructional contexts. The first section examines the why and what of NOS, its nature, and what research says about how to teach NOS in science settings. The second section focuses on extending knowledge about NOS to question of scientific method, theory-laden observation, the role of experiments and observations and distinctions between science, engineering and technology. The dominant theme of the remainder of the book is a focus on teaching aspects of NOS applicable to a wide variety of instructional environments.

This collective book results of several meetings since 2006 between European historians of science and technology. Regularly, the six editors (and most of the authors present in this publication) organized symposia inside international conferences about the role of history of science and technology in science education and teacher training. The principal objectives of this book are: i) to enlighten and to discuss different research problems concerning HST (History of Science and Technology) and ICT (Information and Communication Technology), HST and IBST (Inquiry Based Science Teaching), HST and Science Education. In this way, it is dedicated to scholars, ii) to offer teachers and teacher trainers different ways to explore HST by using digital resources online, using a new teaching method and to become more familiar with the method in HST. As historians, the six editors develop research in the following fields: history of mathematics (O. Bruneau, M. R. Massa-Esteve and T. de Vittori), history of physics, chemistry and technology (P. Grapi, P. Heering, S. Laube). As teacher trainers at the university, they are also involved in research in science education about the role of HST to teach science at primary and secondary schools.

This book presents a “philosophy of science education” as a research field as well as its value for curriculum, instruction and teacher pedagogy. It seeks to re-think science education as an educational endeavour by examining why past reform efforts have been only partially successful, including why the fundamental goal of achieving scientific literacy after several “reform waves” has proven to be so elusive. The identity of such a philosophy is first defined in relation to the fields of philosophy, philosophy of science, and philosophy of education. It argues that educational theory can support teacher’s pedagogical content knowledge and that history, philosophy and sociology of science should inform and influence pedagogy. Some case studies are provided which examine the nature of science and the nature of language to illustrate why and how a philosophy of science education contributes to science education reform. It seeks to contribute in general to the improvement of curriculum design and science teacher education. The perspective to be taken on board is that to teach science is to have a philosophical frame of mind—about the subject, about education, about one’s personal teacher identity.

This book offers a comprehensive overview of research at interface between History, Philosophy and Sociology of Science (HPSS) and Science Teaching in Ibero-America. It contributes to research on contextualization of science for students, teachers and researchers, and explains how to use different episodes of history of science or different themes of philosophy of science in regular science classes through diverse pedagogical approaches. The chapters in this book discuss a wide range of topics under different methodological, epistemological and didactic approaches, reflecting the richness of research developed in Spanish and Portuguese speaking countries, Latin America, Spain and Portugal. The book contains chapters about historical events, topics of philosophy and sociology of science, nature of science, applications of HPSS in the classroom, instructional materials for students and teacher training courses and curriculum.

Scientific knowledge is the most solid and robust kind of knowledge that humans have because of the self-correcting character inherent in its own processes. Nevertheless, anti-evolutionists, climate denialists, and anti-vaxxers, among others, question some of the best-established scientific findings, making claims that are unsupported by empirical evidence. A common aspect of these claims is the reference to the uncertainties in these areas of research, which leads to the conclusion that science is uncertain about evolution, climate change, and vaccination, among others. The truth of the matter is that while the broad picture is clear, there exist--and will always exist--uncertainties about the details of the respective phenomena. In this book Kampourakis and McCain show that uncertainty is an inherent feature of science that does not devalue it. In contrast, uncertainty actually makes science advance because it motivates further research. The first book of its kind, Uncertainty draws on philosophy of science to explain what uncertainty in science is and how it makes science advance. It contrasts evolution, climate change, and vaccination, where the uncertainties are exaggerated, to genetic testing and forensic science where the uncertainties are usually overlooked. Kampourakis and McCain discuss the scientific, psychological, and philosophical aspects of uncertainty in order to explain what it is really about, what kind of problems it actually poses, and why it ultimately makes science advance. Contrary to the public representations of scientific findings and conclusions that produce an intuitive but distorted view of science as certain, we need to understand and learn to live with uncertainty in science.

Teaching is a demanding profession as there is constant fluctuation and evolution. A portion of teaching is the ability to be able to adapt to various environments, especially shifting from in-person instruction to online practices. Over the last few years, early childhood and elementary school classrooms have been thrust into hybrid and remote learning environments, and it is vital that educators and institutions adapt to new practices and create various outlets for teachers to be able to more adequately reach their young audience. The Handbook of Research on Adapting Remote Learning Practices for Early Childhood and Elementary School Classrooms is a critical resource to assist teachers as they develop online teaching practices and work to cater to young students so that they can receive the strongest benefits from their education. Through coverage of topics such as hybrid learning and parental involvement, paired with sample lesson plans, course formats, concepts, ideas, and additional components to further the body of research pertaining to remote learning, this book is tremendously beneficial to administrators, researchers, academicians, practitioners, instructors, and students.

Climate change adaptation is increasingly recognized as complementary part to climate change mitigation. Climate change affects sea level, the extent of flood prone areas and precipitation patterns among many others. To adapt to these changes, the tasks of municipalities and cities are to implement policies and strategies for changes in land use and coastal management as part of their future development. It is of vital importance to address the uncertainties of climate change scenarios when proposing adaptation measures that are socially viable and economically reasonable. The decision making process, promoted here, is based on scientific excellence as well on an integrated communication process. This book provides a comprehensive overview of key elements required for effective analysis and assessment of climate change impacts, economic cost-benefit analysis, communication processes and creation and transfer of knowledge, governance issues and implementation of related policies. It describes the results achieved by the BaltCICA (www.baltcica.org) project whose contributors come from the scientific and public administration communities. The regional cooperation has led to the implementation of climate change adaptation in several case studies. The BaltCICA project developed concepts, methodologies and tools for climate change adaptation that can be translated across other global regions. Scientists and students working on the development of climate change and adaptation strategies; public administrators in the related fields on local, regional and state level including environment, water management, civil defense; as well as professionals working with adaptation technologies, including engineering, technological solutions, urban planning agencies and construction, will value this innovative book.