This is an important book precisely because there is none other quite like it.

Citizen Inquiry: Synthesising Science and Inquiry Learning is the first book of its kind to bring together the concepts of citizen science and inquiry-based learning to illustrate the pedagogical advantages of this approach. It shifts the emphasis of scientific investigations from scientists to the general public, by educating learners of all ages to determine their own research agenda and devise their own investigations underpinned by a model of scientific inquiry. 'Citizen Inquiry' is an (...) original approach to research education that refers to mass participation of the public in joining inquiry-led scientific investigations. Using a range of practical case studies underpinned by the theory of inquiry-based learning, this book has significant implications for teaching and learning through exploration of how new technologies can be used to engage with scientific research. Key features include: a new perspective on science education and science practice through crowd-sourced research explanation of the benefits of this innovative approach to teaching and learning a steady shift of emphasis from theory to application for readers to thoroughly understand the current state of research in the field and its applications to practice examples of practical applications of this approach and recommendations on how successful citizen inquiry applications can be developed This edited volume is essential reading for academic researchers and professional educators interested in the potential of online technology in all levels of education, from primary and secondary level through to further education and lifelong learning. It will be ideal reading on any undergraduate or postgraduate course involving Research Methods in education as well as developments in science education and educational software. (shrink)

Making Social Science Matter presents an exciting new approach to the social and behavioral sciences including theoretical argument, methodological guidelines, and examples of practical application. Why has social science failed in attempts to emulate natural science and produce normal theory? Bent Flyvbjerg argues that the strength of social sciences lies in its rich, reflexive analysis of values and power, essential to the social and economic development of any society. Richly informed, powerfully argued, and clearly written, this book (...) opens up a new future for the social sciences. Its empowering message will make it required reading for students and academics across the social and behavioral sciences. (shrink)

Good Science is an account of psychological research emphasizing the moral foundations of inquiry. This volume brings together existing disciplinary critiques of scientism, objectivism, and instrumentalism, and then discusses how these contribute to institutionalized privilege and to less morally responsive research practices. The author draws on historical, critical, feminist, and science studies traditions to provide an alternative account of psychological science and to highlight the irreducibly moral foundations of everyday scientific practice. This work outlines a theoretical (...) framework for thinking about and practicing psychology in ways that center moral responsibility, collective commitment, and justice. The book then applies this framework, describing psychological research practices in terms of the their moral dilemmas. Also included are materials meant to aid in methods instruction and mentoring. (shrink)

Current academic philosophy is being challenged from several angles. Subdisciplinary specialisations often make it challenging to articulate philosophy’s relevance for the societal questions of our day. Additionally, the success of the ‘scientific method’ puts pressure on philosophers to articulate their methods and specify how these can be successful. How does philosophical progress come about? What can philosophy contribute to our understanding of today’s world? Moreover, can it also contribute to resolving urgent societal challenges, such as anthropogenic climate change? This edited (...) volume evaluates the place of philosophy in the age of science. It addresses three related sub-themes: philosophical progress, philosophical method and philosophy’s societal relevance. Fourteen authors engage with these sub-themes, focusing on the topics of their philosophical expertise, such as the philosophy of religion, evolutionary ethics and the nature of free will. In doing so, they explore their methods of enquiry, and look at how progress in their research comes about. (shrink)

This book advocates a radical shift of concern in philosophical, historical, and sociological studies of the sciences, and explores the consequences of such a shift. The historically-oriented first part of the work deals with the ways in which ranges of questions become real and cease to be real for communities of inquirers. The more philosophically-oriented second part of the work introduces the notion of absolute reality of questions, and addresses doubt about the claims of the sciences to have accumulated absolutely (...) real questions. It is argued that recent studies in the sociology and social history of the science pose strong challenges to the sciences by revealing how appeals to authority, vested interests, and rhetorical and aesthetic sensibilities play substantial roles in the practices of the sciences. The final chapter defends the pragmatic stance of the work, and of its companion, The Fortunes of Inquiry, and draws morals about the roles of criticism and reflection in the philosophy of science and in the sciences themselves. (shrink)

It is a feature of scientific inquiry that it proceeds alongside a multitude of non-scientific interests. This statement is as true of the scientific inquiries of previous centuries, many of which brought scientists into conflict with institutionalised religious thinking, as it is true of the scientific inquiries of today, which are conducted increasingly within commercial and political contexts. However, while the fact of the coexistence of scientific and non-scientific interests has changed little over time, what has changed with time (...) is the effect of this coexistence on scientific inquiry itself. While scientists may no longer construct their theories with various religious dictates in mind, growing commercial and political interests in science have served to distort the interpretation of science. Using the U.K.’s recent crisis with bovine spongiform encephalopathy (BSE) as my context, I examine two ways in which this distortion has occurred – the interpretation of the science of BSE by politicians and by commercial parties for the purposes of justifying policy decisions and informing the public of risk, respectively. Fallacious reasoning, I contend, is the manifestation of this distortion in these contexts. In demonstration of this claim, I examine how politicians and commercial parties alike have employed two fallacies in their assessments of the science of BSE. These fallacies extend in novel ways the set of so-called traditional informal fallacies. The interpretation of science, I conclude, is a rich context in which to conduct a study of fallacious reasoning; moreover, such a study can contribute in significant ways, I argue, to the public understanding of science. (shrink)

Amid criticism of medicine's scientific rigor and patient care, this book offers a philosophical examination of the nature and aims of medicine, and new perspectives on how these challenges can be addressed. It offers input for rethinking the agenda of medical research, healthcare delivery, and the education of healthcare personnel.

The ‘community of inquiry’ as formulated by C. S. Peirce is grounded in the notion of communities of discipline-based inquiry engaged in the construction of knowledge. The phrase ‘transforming the classroom into a community of inquiry’ is commonly understood as a pedagogical activity with a philosophical focus to guide classroom discussion. But it has a broader application. Integral to the method of the community of inquiry is the ability of the classroom teacher to actively engage in (...) the theories and practices of discipline-based communities of inquiry so as to become informed by the norms of the disciplines, not only to aspire to competence within the disciplines, but also to develop habits of self-correction for reconstructing those same norms when faced with novel problems and solutions, including those in the classroom. This has implications for science education and the role of educational philosophy in developing students' ability to think scientifically. But it also has broader implications for thinking critically within all key learning areas. Here we concentrate on science education. We present the parallels between philosophical inquiry and scientific inquiry that need to be realised to promote and engage with scientific inquiry in the classroom. We also discuss the conflicts between philosophical inquiry and the way inquiry science in the classroom is portrayed in the education literature. Based on philosophical and historical perceptions of science as inquiry, a practical approach to implementation of scientific inquiry in the science classroom is presented. (shrink)

This book is a critical introduction to the philosophy of social science. While most social scientists maintain that the social sciences should stand free of politics, this book argues that they should be politically partisan. Root offers a clear description and provocative criticism of many of the methods and ideals that guide research and teaching in the social sciences.

Naked Science is about contested domains and includes different science cultures: physics, molecular biology, primatology, immunology, ecology, medical environmental, mathematical and navigational domains. While the volume rests on the assumption that science is not autonomous, the book is distinguished by its global perspective. Examining knowledge systems within a planetary frame forces thinking about boundaries that silence or affect knowledge-building. Consideration of ethnoscience and technoscience research within a common framework is overdue for raising questions about deeply held beliefs (...) and assumptions we all carry about scientific knowledge. We need a perspective on how to regard different science traditions because public controversies should not be about a glorified science or a despicable science. Contributors are: Ward Goodenough, Eloisa and Brent Berlin, Colin Scott, Jean Lave, Emily Martin, Troy Duster, Hugh Gusterson, Charles Schwartz, Joan Fujimura, Sharon Traweek, Estellie Smith, Ellen Bielawaski, David Jacobon, Charles Ziegler, Pamela Asquith. (shrink)

Scientific Inquiry: Readings in the Philosophy of Science features an impressive collection of classical and contemporary readings on a wide range of issues in the philosophy of science. The volume is organized into six sections, each with its own introduction, and includes a general introduction that situates the philosophy of science in relation to other areas of intellectual inquiry. The selections focus on the main issues in the field, including the structure of scientific theories, models (...) of scientific explanation, reductionism, historicist challenges to the objectivity of science, and the dispute over the ontological interpretation of mature scientific theories. Both the positivist model of science and its competitors, including contemporary social constructivist models, are included. Ideal for introductory philosophy of science courses, Scientific Inquiry strives to provide students and other readers with a thorough knowledge of the philosophical complexity of modern science and an appreciation of its authoritative intellectual standing in contemporary life. (shrink)

Studies the social science of moral inquiry as an attempt to develop a psychology and sociology that would explain the complex in terms of the simple as the new physics was doing in the natural realm.

Two seemingly complementary trends stand out currently in school science education in the United States: one is the increased emphasis on inquiry activities in classrooms, and the other is the high level of attention given to student understanding of the nature of science. This essay looks at the range of activities that fall within the first trend, noting, in particular, the growing popularity of inquiry activities that engage students in engineering-type tasks. The potential for public disengagement (...) from science and technology issues is described as a result of the continued juxtaposition of these sorts of inquiry activities with our current, idealized portrayals of the nature of science—the emphasis of the second trend. Drawing on Dewey's instrumental theory of knowledge, an alternative way of thinking about science is offered that would not only provide for a more authentic understanding of science, but also invite much needed public participation in the broad governance of science in modern-day democratic societies. (shrink)

In his 1836 lectures to the Royal Institute, the great landscape painter John Constable stated that ‘Painting is a science, and should be pursued as an inquiry into the laws of nature.’ Landscape, he went on to say, should ‘be considered a branch of natural philosophy, of which pictures are but the experiments.’1Constable makes two claims in this striking passage. The first is that painting is a form of inquiry. This is, by itself, a bold claim, but (...) Constable goes on to state that painters and scientists inquire in the same way. As controversial as these views are, both of them have been sympathetically entertained in recent years by several philosophers. In particular, Nelson Goodman and Catherine Elgin have maintained that painting, and the other arts, are forms of inquiry, and that they are akin to the sciences in important respects.2I think, however, that Constable is only half right. Although I agree that the arts are forms of inquiry, I will argue that the arts and the sciences employ radically different methods. That the arts and the sciences are very different forms of inquiry might seem to be a point so obvious as to be scarcely worth making. We can, however, appreciate more clearly how the arts can contribute to our knowledge by contrasting its methods with those of science. (shrink)

Aristotle's word for science is epistêmê, which has at least a dual use in the Greek of his day and is standardly used, in one way, as a count noun, to mean “a science.” Thus, in this usage, one can say that geometry, or phusikê, or metaphysics is epistêmê, a science. Here the term epistêmê designates a special sort of systematic body of truth or fact that may or may not have yet been discovered, or fully discovered. (...) In Plato's Protagoras, Socrates uses the term epistêmê for knowledge of the particular right moral action to perform on some specific occasion and he is followed in this use of the term by Aristotle in Nicomachean Ethics VII.2. Aristotle claims that scientific principles are reached by induction. (shrink)

The present study specifically focuses on science teachers’ views about scientific inquiry and their use of scientific inquiry in their lesson plans, which were prepared at a professional development workshop designed for better utilization of science centers (SCs). As an impact evaluation research, qualitative data was collected from 41 purposively selected volunteer science teachers. The project team provided the participants with intense instruction in inquiry, and fostered them to learn nature of science and (...) nature of scientific inquiry explicitly. The participants designed lesson plans that integrate school science curricula with exhibits at SCs before and after the workshop. An open-ended questionnaire about the views about scientific inquiry (VASI) was administered before and after the workshop, and teachers’ post-lesson plans were analyzed to detect the presence of scientific inquiry aspects. The majority of teachers exhibited improved views about scientific inquiry based on the VASI instrument. Also, lesson plan analyses indicated that teachers, who showed more improvement in VASI, included more scientific inquiry (SI) elements in their post-lesson plans. It was observed that science teachers’ lesson plans are limited in terms of teaching science in line with real scientific inquiries in SCs to make students learn about the nature of scientific inquiry while learning science. Only two groups embedded SI properly in the SC-oriented lesson plans, and teachers rather used inquiry-based methods of teaching (e.g., argumentation, predict-observe-explain) and process skills (e.g., questioning, explanations). Accordingly, further studies are suggested to develop a specific pedagogical content knowledge framework for teaching with/in SCs. (shrink)

Sacred Science will be of interest to all those who believe in the emergence of the self-determining human spirit within the field of religious belief and practice. It is written for the general reader, yet specialists in transpersonal studies will find that it addresses critical issues at a sophisticated level.

Idioms of Inquiry reflects the most recent and creative thinking in the field of political theory. The contributors agree that the old orthodox political theory is no longer viable, arguing instead for a pluralism of approaches. Each takes a particular idiom of inquiry on its own terms and analyzes its plausibility and internal limitations. The idioms discussed cover the current leading theories: rational choice, Popperian situational analysis, hermeneutics, phenomenology, critical theory, feminism, Foucauldian deconstructionism, and metascientific realism.

A general discussion of the science of law, intended for the "youth of the nation" who intended to study the law.

Open peer commentary on the article “Beyond Technocentrism: Supporting Constructionism in the Classroom” by Karen Brennan. Upshot: Brennan describes ways by which teachers can be supported to bypass a technocentric view of learning with technology in the classroom, from a constructionist perspective. She reports on the development of a corresponding model of professional development by describing the elements of the model and its design principles as well as the tensions that arose while trying to support teachers’ explorations and experiences in (...) the classroom. Questions arise about the potential of the model to be exploited to address issues underlying teachers’ professional development in different contexts. (shrink)

Over the last three decades, an escalating portion of U.S. school children has been classified for special education; those with diagnoses entitled to services now number 15 percent of all public school pupils. At the same time, American scientists have focused increasingly on juvenile brains, studying what one psychiatric epidemiologist labeled ‘‘social incapacities.’’ This article reports on the laboratory labors of two scientific groups: neuroscientists who scan children’s brains in search of resting state differences according to diagnosis and psychiatric epidemiologists (...) who look to epigenetics to distinguish differential diagnostic populations. The article focuses on the medicalization of childhood differences and the harmonies and discordances between what researchers and parents understand to be at the root of children’s learning and social capacities. (shrink)

If Lipman’s claim that philosophy is the discipline whose central concern is thinking is true, then any attempt to improve students’ scientific critical thinking ought to have a philosophical edge. This chapter explores that position. -/- The first section addresses the extent to which critical thinking is general – applicable to all disciplines – or contextually bound, explores some competing accounts of what critical thinking actually is and considers the extent to which scientific thinking builds on, or is quite different (...) from, generic thinking. Evidence that traditional science education does not teach scientific thinking well leads to the conclusion that some different pedagogical approach needs to be added to science curricula. -/- The second section surveys several approaches to ‘minds-on’ science education, each of which shares an emphasis on the students identifying areas of puzzlement, rigorous discussion of these puzzles, attention to metacognition and opportunities to address thinking across different contexts. -/- Finally, a summary of the main conclusions is followed by consideration of possible objections and suggestions as to further research that could help to clarify and fine-tune the teaching of good scientific thinking in primary and secondary schools. (shrink)

In this thesis I investigate causal inquiry in the social sciences, drawing on examples from various disciplines and in particular from conflict studies. In a backlash against the pervasiveness of statistical methods, in the last decade certain social scientists have focused on finding the causal mechanisms behind observed correlations. To provide evidence for such mechanisms, researchers increasingly rely on ‘process tracing’, a method which attempts to give evidence for causal relations by specifying the chain of events connecting a putative (...) cause and effect of interest. I will ask whether the causal claims process tracers make are defensible, and where they are not defensible I will ask how we can improve the method. Throughout these investigations, I show that the conclusions of process tracing are constrained both by the causal structure ofthe social world and by social scientists’ aims and values. My central argument is this: all instances of social phenomena have causally relevant differences, which implies that any research design that requires some comparison between cases is limited by how we systematize these phenomena. Moreover, such research cannot rely on stable regularities. Nevertheless, to forego causal conclusions altogether is not the right response to these limitations; by carefully outlining our epistemic assumptions we can make progress in causal inquiry. While I use philosophical theories of causation to comment on the feasibility of a social scientific method, I also do the reverse: by investigating a popular contemporary method in the social sciences, I show to what extent our philosophical theories of causation are workable in practice. Thus, this thesis is both a methodological and a philosophical work. Every chapter discusses both a fundamental philosophical position on the social sciences and a relevant case study from the social sciences. (shrink)

In his 1836 lectures to the Royal Institute, the great landscape painter John Constable stated that ‘Painting is a science, and should be pursued as an inquiry into the laws of nature.’ Landscape, he went on to say, should ‘be considered a branch of natural philosophy, of which pictures are but the experiments.’1Constable makes two claims in this striking passage. The first is that painting is a form of inquiry. This is, by itself, a bold claim, but (...) Constable goes on to state that painters and scientists inquire in the same way. As controversial as these views are, both of them have been sympathetically entertained in recent years by several philosophers. In particular, Nelson Goodman and Catherine Elgin have maintained that painting, and the other arts, are forms of inquiry, and that they are akin to the sciences in important respects.2I think, however, that Constable is only half right. Although I agree that the arts are forms of inquiry, I will argue that the arts and the sciences employ radically different methods. That the arts and the sciences are very different forms of inquiry might seem to be a point so obvious as to be scarcely worth making. We can, however, appreciate more clearly how the arts can contribute to our knowledge by contrasting its methods with those of science. (shrink)

The Scenes of Inquiry advocates a radical shift of concern in philosophical, historical, and sociological studies of the sciences, from answers and doctrines to questions and problems, and explores the consequences of such a shift. Nicholas Jardine has expanded the book considerably for this paperback edition, adding a substantial preface, an extensive bibliography, and three new essays which develop the book's themes and pursue its aims further. 'Philosophers, historians, sociologists, and not least scientists, should read it' Times Higher Education (...) Supplement. (shrink)