Sibel Erduran – författare

Educators, and policymakers around the world are increasingly keen that students of all levels (school and university alike) develop 'deep learning’. But, what counts as deep learning and what does it look like in different disciplines?This book examines the issue of students developing ‘deep learning’ in different disciplines including mathematics, science, English, geography, history, religious education, and foreign languages. Each chapter of this essential resource focuses on a particular discipline, clearly articulate its own perspective on deep learning, and discuss a concept or approach that is considered important for deep learning in the particular discipline but whose place in typical teaching practice and/or policy debate tends not to reflect that importance.A commentary chapter draws out and highlights unifying cross-disciplinary aspects of deep learning making this a must read for all researchers, teacher educators and policy makers interested in deep learning across the disciplines.

Educators, and policymakers around the world are increasingly keen that students of all levels (school and university alike) develop 'deep learning’. But, what counts as deep learning and what does it look like in different disciplines?This book examines the issue of students developing ‘deep learning’ in different disciplines including mathematics, science, English, geography, history, religious education, and foreign languages. Each chapter of this essential resource focuses on a particular discipline, clearly articulate its own perspective on deep learning, and discuss a concept or approach that is considered important for deep learning in the particular discipline but whose place in typical teaching practice and/or policy debate tends not to reflect that importance.A commentary chapter draws out and highlights unifying cross-disciplinary aspects of deep learning making this a must read for all researchers, teacher educators and policy makers interested in deep learning across the disciplines.

Our conversations about arguments began in Nashville in the Spring of 1996 in Richard Duschl’s doctoral seminar that we were both attending, Marilar Jiménez-Aleixandre as a visiting scholar at Vanderbilt University. Jiménez-Aleixandre and Duschl were designing authentic problems in genetics for the University of Santiago de Compostela-based RODA project aimed at engaging high school students in argumentation. Erduran and Duschl had been working on Project SEPIA extending their work in Pittsburgh schools to the design of curricula that support epistemological aspects of scientific inquiry including argumentation. In that spring we attended a NARST s- sion in St Louis, where Gregory Kelly, Steven Druker and Catherine Chen presented a paper about argumentation. As a consequence, a symposium about argumentation was organised (possibly the first of its kind) at the 1997 NARST meeting in Chicago, including papers from Kelly and colleagues and from Jiménez-Aleixandre, Bugallo and Duschl. The symposium was attended, among others, by Rosalind Driver, who had just submitted an application for funding of an argumentation project based at King’s College London, a project Erduran would incidentally work on after Driver’s untimely death. From this time frame in the 1990s to the present day, argumentation studies in science education have increased at a rapid pace, from stray papers for which we were unable to find an appropriate strand in a conference, to a wealth of research base exploring ever more sophisticated issues.

Many studies have highlighted the importance of discourse in scientific understanding. Argumentation is a form of scientific discourse that plays a central role in the building of explanations, models and theories. Scientists use arguments to relate the evidence that they select from their investigations and to justify the claims that they make about their observations. The implication is that argumentation is a scientific habit of mind that needs to be appropriated by students and explicitly taught through suitable instruction.Edited by Sibel Erduran, an internationally recognised expert in chemistry education, this book brings together leading researchers to draw attention to research, policy and practice around the inclusion of argumentation in chemistry education. Split into three sections: Research on Argumentation in Chemistry Education, Resources and Strategies on Argumentation in Chemistry Education, and Argumentation in Context, this book blends practical resources and strategies with research-based evidence. The book contains state of the art research and offers educators a balanced perspective on the theory and practice of argumentation in chemistry education.

Many studies have highlighted the importance of discourse in scientific understanding. Argumentation is a form of scientific discourse that plays a central role in the building of explanations, models and theories. Scientists use arguments to relate the evidence that they select from their investigations and to justify the claims that they make about their observations. The implication is that argumentation is a scientific habit of mind that needs to be appropriated by students and explicitly taught through suitable instruction.Edited by Sibel Erduran, an internationally recognised expert in chemistry education, this book brings together leading researchers to draw attention to research, policy and practice around the inclusion of argumentation in chemistry education. Split into three sections: Research on Argumentation in Chemistry Education, Resources and Strategies on Argumentation in Chemistry Education, and Argumentation in Context, this book blends practical resources and strategies with research-based evidence. The book contains state of the art research and offers educators a balanced perspective on the theory and practice of argumentation in chemistry education.

This book synthesizes theoretical perspectives, empirical evidence and practical strategies for improving teacher education in chemistry. Many chemistry lessons involve mindless “cookbook” activities where students and teachers follow recipes, memorise formulae and recall facts without understanding how and why knowledge in chemistry works. Capitalising on traditionally disparate areas of research, the book investigates how to make chemistry education more meaningful for both students and teachers. It provides an example of how theory and practice in chemistry education can be bridged. It reflects on the nature of knowledge in chemistry by referring to theoretical perspectives from philosophy of chemistry. It draws on empirical evidence from research on teacher education, and illustrates concrete strategies and resources that can be used by teacher educators. The book describes the design and implementation of an innovative teacher education project to show the impact of an intervention on pre-service teachers. The book shows how, by making use of visual representations and analogies, the project makes some fairly abstract and complex ideas accessible to pre-service teachers.

This book synthesizes theoretical perspectives, empirical evidence and practical strategies for improving teacher education in chemistry. Many chemistry lessons involve mindless “cookbook” activities where students and teachers follow recipes, memorise formulae and recall facts without understanding how and why knowledge in chemistry works.

This edited volume presents innovative current research in the field of Science Education. The chapter’s deal with a wide variety of topics and research approaches, conducted in a range of contexts and settings. Together they make a strong contribution to knowledge on science teaching and learning. The book consists of selected presentations from the 12th European Science Education Research Association (ESERA) Conference, held in Dublin, Ireland from 21st to 25th August, 2017. The ESERA community is made up of professionals with diverse disciplinary backgrounds from natural sciences to social sciences. This diversity enables a rich understanding of cognitive and affective aspects of science teaching and learning. The studies in this book will stimulate discussion and interest in finding new ways of implementing and researching science education for the future. The twenty-two chapters in this book are presented in four parts highlighting innovative approaches toschool science, emerging identities in science education, approaches to developing learning and competence progressions, and ways of enhancing science teacher education. This collection of studies showcases current research orientations in science education and is of interest to science teachers, teacher educators and science education researchers around the world with a commitment to bridging research and practice in science teaching and learning.

This collection of studies showcases current research orientations in science education and is of interest to science teachers, teacher educators and science education researchers around the world with a commitment to bridging research and practice in science teaching and learning.

Prompted by the ongoing debate among science educators over ‘nature of science’, and its importance in school and university curricula, this book is a clarion call for a broad re-conceptualizing of nature of science in science education. The authors draw on the ‘family resemblance’ approach popularized by Wittgenstein, defining science as a cognitive-epistemic and social-institutional system whose heterogeneous characteristics and influences should be more thoroughly reflected in science education. They seek wherever possible to clarify their developing thesis with visual tools that illustrate how their ideas can be practically applied in science education.The volume’s holistic representation of science, which includes the aims and values, knowledge, practices, techniques, and methodological rules (as well as science’s social and institutional contexts), mirrors its core aim to synthesize perspectives from the fields of philosophy of science and science education. The authorsbelieve that this more integrated conception of nature of science in science education is both innovative and beneficial. They discuss in detail the implications for curriculum content, pedagogy, and learning outcomes, deploy numerous real-life examples, and detail the links between their ideas and curriculum policy more generally.

Prompted by the ongoing debate among science educators over ‘nature of science’, and its importance in school and university curricula, this book is a clarion call for a broad re-conceptualizing of nature of science in science education. The authors draw on the ‘family resemblance’ approach popularized by Wittgenstein, defining science as a cognitive-epistemic and social-institutional system whose heterogeneous characteristics and influences should be more thoroughly reflected in science education. They seek wherever possible to clarify their developing thesis with visual tools that illustrate how their ideas can be practically applied in science education.The volume’s holistic representation of science, which includes the aims and values, knowledge, practices, techniques, and methodological rules (as well as science’s social and institutional contexts), mirrors its core aim to synthesize perspectives from the fields of philosophy of science and science education. The authorsbelieve that this more integrated conception of nature of science in science education is both innovative and beneficial. They discuss in detail the implications for curriculum content, pedagogy, and learning outcomes, deploy numerous real-life examples, and detail the links between their ideas and curriculum policy more generally.