Philosophy of science education can play a vital role in the preparation and professional development of science teachers. In order to fulfill this role a philosophy of science education should be made practical for teachers. First, multiple and inherently incomplete philosophies on the teacher and teaching on what, how and why should be integrated. In this paper we describe our philosophy of science education which is composed of bounded rationalism as (...) a guideline for understanding teachers’ practical reasoning, liberal education underlying the why of teaching, scientific perspectivism as guideline for the what and educational social constructivism as guiding choices about the how of science education. Integration of multiple philosophies into a coherent philosophy of science education is necessary but not sufficient to make it practical for teachers. Philosophies are still formulated at a too abstract level to guide teachers’ practical reasoning. For this purpose, a heuristic model must be developed on an intermediate level of abstraction that will provide teachers with a bridge between these abstract ideas and their specific teaching situation. We have developed and validated such a heuristic model, the CLASS model in order to complement our ASSET approach. We illustrate how science teachers use the ASSET approach and the CLASS model to make choices about the what, the how and the why of science teaching. (shrink)

Derek Hodson; Philosophy of Science and Science Education, Journal of Philosophy of Education, Volume 20, Issue 2, 30 May 2006, Pages 215–225, https://doi.org/1.

INTRODUCTION What relevance — if any — does philosophy of science have for science education? Unfortunately, this question has been largely unexplored. ...

The “practice turn” in philosophy of science has strengthened the connections between philosophy and scientific practice. Apart from reinvigorating philosophy of science, this also increases the relevance of philosophical research for science, society, and science education. In this paper, we reflect on our extensive experience with teaching mandatory philosophy of science courses to science students from a range of programs at University of Copenhagen. We highlight some of the lessons (...) we have learned in making philosophy of science “fit for teaching” outside of philosophy circles by taking selected cases from the students’ own field as the starting point. We argue for adapting philosophy of science teaching to particular audiences of science students, and discuss the benefits of drawing on research within science education to inform curriculum and course design. This involves reconsidering teaching resources, assumptions about students, intended learning outcomes, and teaching formats. We also argue that to make philosophy of science relevant and engaging to science students, it is important to consider their potential career trajectories. By anticipating future contexts and situations in which methodological, conceptual, and ethical questions could be relevant, philosophy of science can demonstrate its value in the education of science students. (shrink)

The article shows that Russian philosophical community is very sensitive towards the history and the current state of philosophy of science and of science studies, which are a subject matter of special interest by virtue of a dedicated space in the university education system. This status is also supported by its proximity to the international philosophical mainstream of the 20th century and its specific object, its connection with science. Philosophy of science at the (...) same time retains some neutrality in relation to the dominant political ideology and proposes claims for an objective knowledge. History of philosophy of science, therefore, serves largely as a history of philosophical rationalism, and its prospects are determined by the strengthening of the role of science in modern culture. However, the modern existence of philosophy of science is undergoing substantial change and experiences a series of challenges. Among them there are the humiliation of intellectuals and scientists in society political voluntarism, mass consumption and the cult of mysticism. Under these conditions, a philosophical study of science and technology is forced to take on the challenges of social criticism and shape special civil institutions for self-preservation. Thus philosophy of science integrates the political, ethical and even social engineering components that allow for treating it as a hard core of interdisciplinary interaction of all socio-humanitarian disciplines. (shrink)

Many philosophers of science think scientific practice can benefit from philosophical concepts, and as such philosophy of science should play a direct role in science and engineering education. In this paper we consider a highly integrative course design strategy for integrating philosophy of science in specific disciplinary educational programmes through adaptation, operationalization and embedding of philosophy of science material to fit both the scientific and educational structure of a programme. The goal (...) of the strategy is to help encourage students to recognize the value of philosophical concepts to scientific decision making and to apply them in their own scientific practice. We use the example of a 7.5 ECTS civil engineering course which implements this design at a European technical university, to elaborate these concepts, and present some evidence on how students receive the course. We discuss some of challenges and limitations of implementing this kind of strategy for teaching philosophy of science. (shrink)

With over 3,500 participants, the Twentieth World Congress of Philosophy took as its theme Paideia: Philosophy Educating Humanity. The 10th proceedings volume (of 12) contains 21 contributions from international philosophers on diverse issues in the philosophy of science. A sampling of topics includes reduction in biology, instrumentalism, epistemological positions in the light of truth approximation, and consensus in science. The volume is not indexed. Annotation copyrighted by Book News, Inc., Portland, OR.

Bringing together diverse theoretical and empirical contributions from the fields of social and cognitive psychology, philosophy, and science education, this volume explores representational pluralism as a phenomenon characteristic of human cognition. Building on these disciplines' shared interest in understanding human thought, perception, and conceptual change, the volume illustrates how representational plurality can be conducive to research and practice in varied fields. Particular care is taken to emphasize points of convergence and the value of sharing discourses, models, justifications, (...) and theories of pluralism across disciplines. The editors give ample space for philosophers, cognitive scientists and educators to explicate the history and current status of representational pluralism in their own disciplines. Using multiple forms of research from the relational perspective, this volume will be of interest to students, scholars and researchers with an interest in cognitive psychology, as well as educational psychology and philosophy of science. (shrink)

This paper addresses the context of emergence, development, and current status of the use of history and philosophy of science in science education in Brazil. After a short overview of the three areas (history of science, philosophy of science, and science education) in Brazil, the paper focuses on the application of this approach to teaching physics, chemistry, and biology at the secondary school level. The first Brazilian researches along this line appeared (...) more consistently in the decade of 1970. From 1980 onwards, the importance of this approach became widely accepted, and the subject became a common theme of dissertations and theses, appearing in conferences and educational journals. Since 1998, the use of history and philosophy of science was included among the government recommendations for secondary school science teaching in Brazil. Nowadays, this is an important line of research in graduate programs on science and mathematics education. However, the actual use of this approach in secondary education is still a desideratum. (shrink)

This chapter contains sections titled: Introduction Argentina Mexico Brazil Chile and Puerto Rico Peru Other Centers Concluding Remarks References Further Reading.

Although macroevolution has been the subject of sustained attention in the history and philosophy of science (HPS) community, only in recent years have science educators begun to more fully engage with the topic. This chapter first explores how science educators have conceptualized macroevolution and how their perspectives align with the views from HPS. Second, it illustrates how science educators’ limited engagement with HPS scholarship on macroevolution has influenced construct delineation, measurement instrument development, and educational arguments (...) about which aspects of macroevolution are most important for students to learn. Third, it discusses how scientific debates about the causal factors responsible for macroevolutionary patterns have been exploited by creationists and have impacted the teaching of evolution. Finally, it emphasizes that the rich perspectives that HPS has to offer on the important topic of macroevolution have yet to be integrated into science education scholarship. (shrink)

There is a demand to nurture scientific creativity in science education. This paper proposes that the relevant conceptual infrastructure with which to teach scientific creativity is often already included in philosophy of science courses, even those that do not cover scientific creativity explicitly. More precisely, it is shown how paradigm theory can serve as a framework with which to introduce the differences between combinational, exploratory, and transformational creativity in science. Moreover, the types of components given (...) in Kuhn’s disciplinary matrix are argued to indicate a further subdivision within transformational creativity that makes explicit that this most radical type of creativity that aims to go beyond and thus to transform the current paradigm can take many different directions. More generally, it is argued that there are several synergies between the topic of scientific creativity and paradigm theory that can be utilized in most philosophy of science courses at relative ease. Doing so should promote the understanding of scientific creativity among students, provide another way to signify the relevance of paradigm theory, and more strategically be a way of reinforcing the place of philosophy of science in science education. (shrink)

Education, which is as old as humanity, has existed in various personal forms in non-western societies, where an osmotic exchange of wisdom, values and life skills within families, tribes and communities was instrumental in the formation and continuation of diverse wisdom traditions all over the world. A personal system of education, called Gurukula (Sanskrit guru, teacher; kula, family) education, thrived in pre-colonial South Asia for centuries before it was replaced by colonial education. This article discusses the (...) philosophy and science behind Gurukula education, where education was a personal process involving an osmotic exchange of essences between teacher and taught, giving wide scope for the celebration of the natural diversity and variability of human behaviour and personality leading to an education that provides equal opportunity in the real sense—as an equal fit between individuals and their environment(s), giving rise to a practical democracy. (shrink)

One of the key elements of science education and teaching is to accurately determine the nature and characteristics of science. Determinations about the nature of science affect science education methods in many ways. Those involved in science education and science teaching agree that the nature of science should be taught explicitly. Thomas Kuhn's theses (paradigm, normal science, scientific revolutions, incommensurability, puzzle solving, theory choice, discovery and justification distinction) on the (...) structure and nature of science, which he put forward as a result of his studies including the history of science, philosophy of science and sociology of science, have been frequently referenced sources in the field of science education and teaching. Accordingly, in the article, the claim of the logical positivist understanding of science is discussed within the framework of Kuhn's views, with the thought that it does not reflect the nature of science. The main argument of the article is that Kuhn's determinations on science and the nature of science emphasize the developing, transforming and changing structure of science and thus he transforms the understanding of the nature of science that is often used in science education. (shrink)

This article describes the historical development of HPS/NOS mainly in higher education. Because the establishment of universities in Japan in late-nineteenth century was a reaction against Western imperialism, higher education aimed to cultivate scientists and engineers with an emphasis on practical applications. This direction in higher science and engineering education continues into the present. It has conditioned elementary and secondary education via university entrance examinations, where no questions on NOS appear. Hence, HPS research and (...) class='Hi'>education has developed in Japanese higher education with little connection to elementary and secondary education. Instead, NOS is communicated in literature, movies, and other media. Scientific and technological communication occurs mainly outside the school curriculum in venues like museums. (shrink)

Can video games teach students about the history and philosophy of science? This paper reports the results of a study investigating the effects of playing an educational video game on students’ knowledge of Galileo’s life and times, the nature of scientific evidence, and Aristotle’s and Galileo’s views of the cosmos. In the game, students were immersed in a computer simulation of 16th century Venice where they interacted with an avatar of Galileo and other characters. Over a period of (...) two weeks, 71 undergraduates were exposed to lectures about Galileo and the Copernican revolution in a traditional classroom setting. However, only half of the students also played the game. The other half were only exposed to lectures. The knowledge of both groups was assessed at the beginning and end of the two-week period. The results demonstrated objective improvements in knowledge for the experimental group while the control group showed virtually no change. Implications of these findings for teaching and learning the history and philosophy of science are discussed. (shrink)

This paper provides arguments to philosophers, scientists, administrators and students for why science students should be instructed in a mandatory, custom-designed, interdisciplinary course in the philosophy of science. The argument begins by diagnosing that most science students are taught only conventional methodology: a fixed set of methods whose justification is rarely addressed. It proceeds by identifying seven benefits that scientists incur from going beyond these conventions and from acquiring abilities to analyse and evaluate justifications of scientific (...) methods. It concludes that teaching science students these skills makes them better scientists. Based on this argument, the paper then analyses the standard philosophy of science curriculum, and in particular its adequacy for teaching science students. It is argued that the standard curriculum on the one hand lacks important analytic tools relevant for going beyond conventional methodology—especially with respect to non-epistemic normative aspects of scientific practice—while on the other hand contains many topics and tools that are not relevant for the instruction of science students. Consequently, the optimal way of training science students in the analysis and evaluation of scientific methods requires a revision of the standard curriculum. Finally, the paper addresses five common characteristics of students taking such a course, which often clash with typical teaching approaches in philosophy. Strategies how best to deal with these constraints are offered for each of these characteristics. (shrink)

Examines some of the potential and some of the problems inherent in using computerized simulations in science and science studies classes by applying lessons from the epistemology of science. While computer simulations are useful pedagogical tools, they are not experiments and thus are of only limited utility as substitutes for actual laboratories. Contains 20 references. (Author/PVD).

This essay enacts a philosophy of science education inspired by Gilles Deleuze and Félix Guattari's figurations of rhizomatic and nomadic thought. It imagines rhizomes shaking the tree of modern Western science and science education by destabilising arborescent conceptions of knowledge as hierarchically articulated branches of a central stem or trunk rooted in firm foundations, and explores how becoming nomadic might liberate science educators from the sedentary judgmental positions that serve as the nodal points (...) of Western academic science education theorising. This is demonstrated by commencing two rhizomatic textual assemblages that generate questions, provocations and challenges to dominant discourses and assumptions of contemporary science education. The first of these addresses cultural representations of Sir Isaac Newton and the second makes multiple, hybrid connections among the parasites, mosquitoes, humans, technologies and socio‐technical relations signified by malaria. (shrink)

In this article, we tackle the phenomenon of what seems to be a misunderstanding between science education theory and philosophy of science−one which does not seem to have received any attention in the literature. While there seems to be a consensus within the realm of science education on limiting or altogether denying the explanatory role of scientific laws (particularly in contrast with “theories”), none of the canonical models of scientific explanation (covering law, statistical relevance, (...) unification, mechanistic-causal, pragmatic) lends any support to this view of laws. We will reconstruct three different versions of this demotion of laws (i.e., laws are merely descriptive; laws are explanatory only of singular events, not of laws; laws are explanatory but only in a “superficial” way), propose possible grounds for them and illustrate why these perspectives pose a conceptual challenge as they contrast with epistemological approaches to the problem of explanation. We will also suggest the potential negative outcomes that would arise from science teachers adopting these approaches in the classroom when aiming to assist students in moving beyond mere description and towards explanation. (shrink)

This handbook provides both an overview of state-of-the-art scholarship in philosophy of science, as well as a guide to new directions in the discipline. Section I contains broad overviews of the main lines of research and the state of established knowledge in six principal areas of the discipline, including computational, physical, biological, psychological and social sciences, as well as general philosophy of science. Section II covers what are considered to be the traditional topics in the (...) class='Hi'>philosophy of science, such as causation, probability, models, ethics and values, and explanation. Section III identifies new areas of investigation that show promise of becoming important areas of research, including the philosophy of astronomy and astrophysics, data, complexity theory, neuroscience, simulations, post-Kuhnian philosophy, post-empiricist epistemology, and emergence. Most chapters are accessible to scientifically educated non-philosophers as well as to professional philosophers, and the contributors - all leading researchers in their field -- bring diverse perspectives from the North American, European, and Australasian research communities. This volume is an essential resource for scholars and students. (shrink)

Since 2004, it has been mandated by law that all Danish undergraduate university programmes have to include a compulsory course on the philosophy of science for that particular program. At the Faculty of Science and Technology, Aarhus University, the responsibility for designing and running such courses were given to the Centre for Science Studies, where a series of courses were developed aiming at the various bachelor educations of the Faculty. Since 2005, the Centre has been running (...) a dozen different courses ranging from mathematics, computer science, physics, chemistry over medical chemistry, biology, molecular biology to sports science, geology, molecular medicine, nano science, and engineering. -/- We have adopted a teaching philosophy of using historical and contemporary case studies to anchor broader philosophical discussions in the particular subject discipline under consideration. Thus, the courses are tailored to the interests of the students of the particular programme whilst aiming for broader and important philosophical themes as well as addressing the specific mandated requirements to integrate philosophy, some introductory ethics, and some institutional history. These are multiple and diverse purposes which cannot be met except by compromise. -/- In this short presentation, we discuss our ambitions for using case studies to discuss philosophical issues and the relation between the specific philosophical discussions in the disciplines and the broader themes of philosophy of science. We give examples of the cases chosen to discuss various issues of scientific knowledge, the role of experiments, the relations between mathematics and science, and the issues of responsibility and trust in scientific results. Finally, we address the issue of how and why science students can be interested in and benefit from mandatory courses in the philosophy of their subject. (shrink)

This anthology contains selected papers from the 'Science as Culture' conference held at Lake Como, and Pavia University Italy, 15-19 September 1999. The conference, attended by about 220 individuals from thirty countries, was a joint venture of the International History, Philosophy and Science Teaching Group (its fifth conference) and the History of Physics and Physics Teaching Division of the European Physical Society (its eighth conference). The magnificient Villa Olmo, on the lakeshore, provided a memorable location for the (...) presentors of the 160 papers and the audience that discussed them. The conference was part of local celebrations of the bicentenary of Alessandro Volta's creation of the battery in 1799. Volta was born in Como in 1745, and for forty years from 1778 he was professor of experimental physics at Pavia University. The conference was fortunate to have had the generous financial support of the Italian government's Volta Bicentenary Fund, Lombardy region, Pavia University, Italian Research Council, and Kluwer Academic Publishers. The papers included here, have or will be, published in the journal Science & Education, the inaugural volume (1992) of which was a landmark in the history of science education publication, because it was the first journal in the field devoted to contributions from historical, philosophical and sociological scholarship. Clearly these 'foundational' disciplines inform numerous theoretical, curricular and pedagogical debates in science education. Contemporary Concerns The reseach promoted by the International and European Groups, and by the journal, is central to science education programmes in most areas of the world. (shrink)

It can be challenging to introduce the philosophy of social science (PoS) to students in the social sciences. Noting the lack of literature providing guidance to the prospective PoS teacher, this paper outlines several pieces of advice on how to engage social science undergraduates in the subject. This advice centres on showing the relevance of the PoS in academia and beyond, reducing complexity and presenting only a few contending PoS perspectives. It is also proposed to use textbooks (...) with caution or avoiding them altogether, illustrating how PoS assumptions are embedded in contemporary social research and showing the connection between the PoS on one hand and research questions, methods, and theory on the other. Finally, the importance of showing students how they can make use of the PoS in their own work and teaching the subject in a ‘hands on’ manner is emphasized. (shrink)

Current debates about liberal education have distracted us from responding intelligently to the growth and dominance of professional preparation programs. In 1828, the Yale faculty, confronted with similar circumstances, developed what may be the last widely influential philosophy of liberal education. It gives us a starting point, as does Plato's Republic. Democracy and the knowledge-based economy require us to articulate a new philosophy of liberal education. Using Kantian terminology, I argue that, whereas the basic purpose (...) of professional preparation is to produce heteronomous behavior, the purpose of liberal education should be the development of autonomous individuals. (shrink)

Some of the problem areas in which British philosophers of science have recently been engaged are described and some of the major contributions noted. Two sets of problems are given special attention: one concerned with the analysis of probability statements and one concerned with the appraisal of scientific theories. Three traditions in the approach to this second set of problems are distinguished. These might be called the Carnapian, the Popperian and the Wittgensteinian traditions.

Science teaching always engages a philosophy of science. This article introduces a modern philosophy of science and indicates its implications for science education. The hermeneutic philosophy of science is the tradition of Kant, Heidegger, and Heelan. Essential to this tradition are two concepts of truth, truth as correspondence and truth as disclosure. It is these concepts that enable access to science in and of itself. Modern science forces aspects of (...) reality to reveal themselves to human beings in events of disclosure. The achievement of each event of disclosure requires the precise manipulation of equipment, which is an activity that depends on truth as correspondence. The implications of the hermeneutic philosophy of science for science education are profound. The article refers to Newton’s early work on optics to explore what the theory implies for teaching. Modern science—as the event of truth—is a relationship between an individual student, equipment, and reality. Science teachers provide for their students’ access to truth and they may show how their discipline holds a special relationship to reality. If the aim of science teaching is to enable students to disclose reality, the science curriculum will challenge some of the current practices of schooling. If teachers base science teaching upon the hermeneutic philosophy of science, science will assert itself as the intellectual discipline that derives from nature, and not from the inclinations of human beings. Science teachers teach nature’s own science. (shrink)

The philosophy of science discussion in Denmark has mainly concentrated on the problem of the external world, the problem of induction, the problem of dialectic in the Marxian sense and the strife between ontological viewpoints, originating in the philosophical tradition, and the analytical method emerging in modern mathematics and quantum mechanics. In this discussion Bohr's correspondence argument and his doctrine of language have functioned as tools of analysis and as objects of study as well. In general, Bohr and (...) J. Jørgensen were the creators of the intellectual climate in which the discussion took place. (shrink)