The paper provides an overview of the hermeneutic and phenomenological context from which the idea of a “constitutional analysis” of science originated. It analyzes why the approach to “hermeneutic fore-structure of scientific research” requires to transcend the distinction between the context of justification and the context of discovery. By incorporating this approach into an integral “postmetaphysical philosophy of science”, I argue that one can avoid the radical empiricism of recent science studies, while also preventing the analysis of (...) science's discursive practices from collapsing into the frames of radical anti-epistemological critique mandated by some hermeneutic philosophers. (shrink)

From the arguments I have presented, I hope it is clear that the distinction between basic and applied research is tenuous. Certain areas of research and methods may be favoured over others because of intrinsic biases, which are predictive of the type of application possible. Believing in the neutrality of pure knowledge is like wearing blinders: scientists need not be too concerned about the way in which the knowledge they generate is used. In my own case, this belief (...) led to my participation in a system of agriculture to which I do not subscribe. Scientists should be willing to take responsibility for how they function in the system as a whole. Given the social structure of science, it is difficult for basic researchers to see their connections with the larger issues, much less to control them. Perhaps new ways of constructing knowledge-generating societies will be necessary in order to encourage individual responsibility. (shrink)

A scientific community cannot practice its trade without some set of received beliefs. These beliefs form the foundation of the "educational initiation that prepares and licenses the student for professional practice". The nature of the "rigorous and rigid" preparation helps ensure that the received beliefs are firmly fixed in the student's mind. Scientists take great pains to defend the assumption that scientists know what the world is like...To this end, "normal science" will often suppress novelties which undermine its foundations. (...) Research is therefore not about discovering the unknown, but rather "a strenuous and devoted attempt to force nature into the conceptual boxes supplied by professional education". (shrink)

In this article, I examine various aspects of the application of Heidegger's motif of interpretative articulation (the core phenomenological motif of existential analytic) to the constitutional analysis of meaningful objects in scientific research that are contextually ready-to-hand. It is my contention that not only the concepts of the ‘fore-structure of understanding’ and the ‘as-structure of interpretation’, but also the extended concepts of the ‘hermeneutic fore-structure of meaning constitution’ and ‘characteristic hermeneutic situation’ are the keys to (...) understanding the interpretative nature of scientific research. The paper applies the constitutional analysis of hermeneutic phenomenology to several phenomena of scientific research—constitution of meaningful objects, situational fulfilment of a domain's general project, production of a domain's thematically given objects, implementation of readable technologies to what is contextually ready-to-hand, reading hypothetical theoretical objects, and exegetical textualizing within interrelated practices. The study is supplied with exemplary illustrations from enzymology and biochemistry. The correlation between a domain's interpretative articulation and the appropriation of research possibilities within the research everydayness is addressed. Special attention is paid to the belief in and reading of intracellular enzymes as hypothetical theoretical objects. (shrink)

A good book may have the power to change the way we see the world, but a great book actually becomes part of our daily consciousness, pervading our thinking to the point that we take it for granted, and we forget how provocative and challenging its ideas once were—and still are. _The Structure of Scientific Revolutions _is that kind of book. When it was first published in 1962, it was a landmark event in the history and philosophy of (...) science. Fifty years later, it still has many lessons to teach. With _The Structure of Scientific Revolutions, _Kuhn challenged long-standing linear notions of scientific progress, arguing that transformative ideas don’t arise from the day-to-day, gradual process of experimentation and data accumulation but that the revolutions in science, those breakthrough moments that disrupt accepted thinking and offer unanticipated ideas, occur outside of “normal science,” as he called it. Though Kuhn was writing when physics ruled the sciences, his ideas on how scientific revolutions bring order to the anomalies that amass over time in research experiments are still instructive in our biotech age. This new edition of Kuhn’s essential work in the history of science includes an insightful introduction by Ian Hacking, which clarifies terms popularized by Kuhn, including paradigm and incommensurability, and applies Kuhn’s ideas to the science of today. Usefully keyed to the separate sections of the book, Hacking’s introduction provides important background information as well as a contemporary context. Newly designed, with an expanded index, this edition will be eagerly welcomed by the next generation of readers seeking to understand the history of our perspectives on science. (shrink)

Neutral Theory is controversial in ecology. Ecologists and philosophers have diagnosed the source of the controversy as: its false assumption that individuals in different species within the same trophic level are ecologically equivalent, its conflict with Competition Theory and the adaptation of species, its role as a null hypothesis, and as a Lakatosian research programme. In this paper, I show why we should instead understand the conflict at the level of research programs which involve more than theory. The (...) Neutralist and Competitionist research programs borrow and construct theories, models, and experiments for various aims and given their home ecological systems. I present a holistic and pragmatic view of the controversy that foregrounds the interrelation between many kinds of practices and decisions in ecological research. (shrink)

Thomas Kuhn's The Structure of Scientific Revolutions has sold more than one million copies since its publication in 1962, is one of the most cited academic books of all time, and continues to be read and studied today. This volume of new essays evaluates the significance of Kuhn's classic book in its changing historical context, including its initial reception and its lasting effects. The essays explore the range of ideas which Kuhn made popular with his influential philosophy of (...) science, including paradigms, normal science, paradigm changes, scientific revolutions, and incommensurability; and they also look at less-studied themes in his work, including scientific measurement, science education, and science textbooks. Drawing on the latest scholarship as well as unpublished material in the Thomas Kuhn Archives at MIT, this volume offers a comprehensive way into Kuhn's philosophy and demonstrates the continuing relevance of his ideas for our understanding of science. (shrink)

Doctoral programs at U.S. universities play a critical role in the development of human resources both in the United States and abroad. This volume reports the results of an extensive study of U.S. research-doctorate programs in five broad fields: physical sciences and mathematics, engineering, social and behavioral sciences, biological sciences, and the humanities. Research-Doctorate Programs in the United States documents changes that have taken place in the size, structure, and quality of doctoral education since the widely used (...) 1982 editions. This update provides selected information on nearly 4,000 doctoral programs in 41 subdisciplines at 274 doctorate-granting institutions. This volume also reports the results of the National Survey of Graduate Faculty, which polled a sample of faculty for their views on the scholarly quality of program faculty and the effectiveness of doctoral programs in preparing research scholars/scientists. This much-anticipated update of such an essential reference will be useful to education administrators, university faculty, and students seeking authoritative information on doctoral programs. (shrink)

I examine the value and limitations of Kuhn’s Structure of Scientific Revolutions. In the interests of developing a social epistemology of science, I argue that we should draw on Kuhn’s later work, published in The Road since Structure. There, Kuhn draws attention to the important role that specialty formation plays in resolving crises in science, a topic he did not discuss in Structure. I argue that we need to develop a better understanding of specialty research (...) communities. Kuhn’s later work provides a research agenda for those who want to study scientific specialization. I briefly discuss some recent studies that promise to provide valuable insight into the social structure of science. (shrink)

The received theories of epistemology identify abductive inferences with the cognitive patterns of speculation (hypothesis formation) and insist that they cannot verify or confirm hypotheses. I criticize various descriptions of abduction, offer a structural analysis of abductive inference,, characterize abduction without alluding to its putative role in inquiry, and then demonstrate that some abductions do provide evidence and that not all scientific hypotheses derive from abductive inferences. This result challenges those notions of scientific k knowledge that dismiss some (...) central scientific ideas (for example, evolution) as ‘meta-physical research programs’ or ‘just theories’ when they are instead well substantiated by abductive evidence. (shrink)

I examine the value and limitations of Kuhn’s Structure of Scientific Revolutions. In the interests of developing a social epistemology of science, I argue that we should draw on Kuhn’s later work, published in The Road since Structure. There, Kuhn draws attention to the important role that specialty formation plays in resolving crises in science, a topic he did not discuss in Structure. I argue that we need to develop a better understanding of specialty research (...) communities. Kuhn’s later work provides a research agenda for those who want to study scientific specialization. I briefly discuss some recent studies that promise to provide valuable insight into the social structure of science. (shrink)

This impressive volume presents the results of a symposium on the structure of scientific theories held at the University of Illinois, Urbana, on March 26-29, 1969; lest this create the wrong impression, let it be noted at the outset that the volume is much more than a collection of papers. Indeed, when one takes into account Frederick Suppe’s book-length introduction, the editing of the critical comments, the extensive bibliography, and the fine index, the work must be seen as (...) the best account of scientific theory now available, one that surely commends itself to every philosopher of science with the slightest interest in metaphysics. The thrust of the symposium was to examine the view of scientific theories that has enjoyed great vogue among logical positivists, who have seen such theories as "axiomatic calculi in which theoretical terms and statements are given a partial observational interpretation by means of correspondence rules." Suppe refers to this as the "Received View," although it has been increasingly questioned in recent years, particularly by philosophers who have some proficiency in the history of science and by scientists who question its fidelity to actual scientific practice. One of the major aims of the symposium was to subject the Received View to analysis and debate by its proponents and by its critics, to assess its present status, and to see if any consensus has begun to develop on this topic—which plays such a key role in the philosophy of science. Suppe performs the analytic function in his critical introduction, and Stephen Toulmin adds a postscript that attempts to chart a course for future research. The message seems to be that the Received View has run its course and has proved to be more a hindrance than a help to philosophizing about science; what will take its place, however, does not emerge with any clarity. Participants in the symposium include all the luminaries in the philosophy of science movement: Carl Hempel, Patrick Suppes, David Bohm, Hilary Putnam, Thomas Kuhn, and Dudley Shapere, among others. Especially noteworthy are Suppe’s account of the development of the Received View and the criticisms that have been lodged against it, viz., its reliance on the analytic-synthetic distinction; the tenability of the observational-theoretical distinction; the notion of partial interpretation; its failure to include models as integral components; its analysis of correspondence rules; and its reliance on axiomatization. Suppe also details some of the proposed alternatives to the Received View, giving in the process lucid expositions of the thought of Toulmin, Kuhn, Hanson, Popper, and Feyerabend—all of which he treats under the rubric of "Weltanshauungen [[sic]] Analyses." Those interested in the relationships between history of science and philosophy of science will find the interchange between I. Bernard Cohen and Peter Achinstein stimulating as well as illuminating. Kuhn takes this occasion to offer his "Second Thoughts on Paradigms," and Shapere continues his criticism of both Kuhn and logical positivism—now more constructively than heretofore—with a penetrating essay entitled "Scientific Theories and their Domains." About the only thing that is lacking is a treatment of recent developments in England, particularly the work of Rom Harré at Oxford and related thinkers, who likewise reject the Received View and offer interesting alternatives to it that have yet to be appreciated and critiqued in the U.S.—W.A.W. (shrink)

The “centre-periphery” relationship historically structured scientific exchanges between metropolis and province, between the fount of empire and its outposts. But the exchange, if regarded merely as a one-way flow of scientific information, ignores both the politics of knowledge and the nature of its appropriation. Arguably, imperial structures do not entirely determine scientific practices and the exchange of knowledge. Several factors neutralise the over-determining influence of politics—and possibly also the normative values of science—on scientific practice.In examining these (...) four examples of Indian scientists in encounters with their peers at the centre, exceptional scientists are seen in a social context where the epistemology of science supposedly describes its practice. Imperialism imposes practices and patronage, which moderate the exchange of scientific knowledge. But, at Level Two, the politics of knowledge and the patterns of patronage within it mediate exchanges between the centre and the periphery.The first step in reconfiguring exchanges between centre and periphery —in this case, between Europe and India during the period 1850 to 1930— is to recognise the relation between the acquisition of resources and the maintenance of legitimacy and identity.67 Political life is not confined to the core of political institutions.68 Second, in examining science as practised in the colonies, it is necessary to see stages of scientific institutions, whose development structures the exchange.From the encounter of Ramchandra and De Morgan, it is evident that the centre-periphery framework should be separated from the models of transmission embedded within it. The notion of “translation” helps to suggest that scientists bring personal motives and meanings to each encounter. Ramchandra, for example, sought a novel method of teaching Indians calculus, while De Morgan's interest lay in finding a place for algebra in a liberal education.The hierarchy inherent in the centre-periphery framework compels the conclusion that, at Level Two, the autodidact outside the institutions of science must have his work presented to scientists at the centre by authoritative figures from the centre. This is not mainly a question of imperialism, but rather of patronage. The peripheral scientist could not be granted direct entry into the collegial circle until his efforts at the periphery could be translated into the language and concerns of the central community. Ramanujan's enigmatic formulas were translated into the language of analysis by Hardy, which enabled the creation of a field to which Hardy was committed. Scientists from the periphery who were already part of the circle by virtue of their training, were not necessarily subject to the same degree of attestation as other scientists from the periphery. P.C. Ray, with his DSc from Edinburgh, and his position at Calcutta University, had less difficulty in winning the trust of colleagues at the centre, even when he returned to India. On the contrary, remaining at the periphery, he moved from a context of patronage to a sphere of competition. In addition, Ray's collegiality, even at Level Two, was more comprehensive, and connected him with Level One.Eventually, the professional Indian science graduate found collegiality within the international community of scientists. Saha's self-imposed progressive nationalism constrained his identification with the centre and made him a potential competitor instead. Once having achieved eminence in the world of science, C.V. Raman and Saha shifted their work to journals of physics published in India in order to further the cause of physics research in their own country.69To go beyond the limitations of the centre-periphery model, it is necessary not merely to examine exchanges between scientists functioning in a “shared epistemological universe”,70 but also to recognise the part played by institutions, the experience of colonialism, and the forms of patronage characterising both colonialism and science. Put another way, although there is relative epistemological autonomy within the disciplinary research communities of science, the interplay between knowledge and power structures this exchange.The scientific links between colonial India and Britain at the turn of the century were mediated by structures which prefigured change. Does structure determine all? If it does, we are left with an Orientalist reconstruction of the docile native, and a passive cultural medium into which science percolates. But this neglects the role of scientists in creating new structures within which they worked. A middle position—one more sensitive to the exigencies of colonial scientific life—would be one where the participants are seen not as the dupes of “structure nor the potentates of action”, but as occupying a ground between the two.71. (shrink)

For historical epistemology to succeed, it must adopt a defensible set of categories to characterise scientific activity over time. In historically orientated philosophy of science during the twentieth century, the original categories of theory and observation were supplemented or replaced by categories like paradigm, research program and research tradition. Underlying all three proposals was talk about conceptual systems and conceptual structures, attributed to individual scientists or to research communities, however there has been little general agreement on (...) the nature of these structures. Recent experimental research in cognitive science has considerably refined the theory of concepts. Drawing upon the results of that research, philosophers can construct more concrete and empirically defensible representations of conceptual systems. I will suggest that this research supports a modest and useful sense of both normal and revolutionary science, not as epistemological continuities or discontinuities, but as particular patterns of conceptual change. (shrink)

I examine the influence of James B. Conant on the writing of Kuhn’s Structure of Scientific Revolutions. By clarifying Conant’s influence on Kuhn, I also clarify the influence that others had on Kuhn’s thinking. And by identifying the various influences that Conant had on Kuhn’s view of science, I identify Kuhn’s most original contributions in Structure. On the one hand, I argue that much of the framework and many of the concepts that figure in Structure were (...) part of Conant’s picture of science, a picture that figured prominently in the general education natural science courses that Conant taught at Harvard. On the other hand, I show that Kuhn’s Structure contains important contributions that do not figure in Conant’s picture of science. I argue that the following three themes in Structure do not originate with Conant: (1) the concept of “normal science”; (2) “the problem of scientific revolutions,” that is, the apparent threat posed by radical changes of theory in science; and (3) Kuhn’s emphasis on the social dimensions of science, specifically the social structure of research communities. (shrink)

The main argument of this article is that science teaching based on a pedagogy of questions is to be modeled on a hermeneutic conception of scientific research as a process of the constitution of texts. This process is spelled out in terms of hermeneutic phenomenology. A text constituted by scientific practices is at once united by a hermeneutic fore-structure and scattered in a diversity of spaces of representation. The educational questioning that should reveal the interpretative aspects (...) of the textualization of scientific research consists of four groups of issues. The ultimate aim of this kind of science teaching is the education of ?internal critics of science' who are able to make explicit hidden possibilities of doing research. (shrink)

Nowadays, computers are in common use, both in experimental and theoretical research. It is worth considering if the implementation of a new, universal research tool has significantly changed the science of the end of 20th century. The crucial question which I will try to answer is if computers have revolutionized the scientific research. In order to find the answer, I will describe modern digitally aided science, taking into consideration the research conducted in the greatest elementary (...) physics laboratory. Subsequently, I will refer to the classic concept of scientific revolution proposed by Thomas S. Kuhn. Finally, I will answer the question related to digital revolution in science. (shrink)

The philosophy of science has lost its self-confidence. Structures in Science (2001) is an advanced textbook that explicates, updates and integrates the best insights of logical empiricism and its main critics. This "neo-classical approach" aims at providing heuristic patterns for research.The book introduces four ideal types of research programs (descriptive, explanatory, design and explicative) and reanimates the distinction between observational laws and proper theories without assuming a theory-free language. It explicates various patterns of explanation by subsumption and specification (...) as well as structures in reductive and other types of interlevel research. Its threefold analysis of theory evaluation leads to new characterizations of confirmation, empirical progress, and truth approximation. What emerges are partial analogies between progress in nomological research, presented in detail in From Instrumentalism to Constructive Realism (2000) and progress in explicative and design research. Finally, special chapters are devoted to design research programs, computational philosophy of science, the structuralist approach to theories, and research ethics.The present synopsis of Structures in Science highlights the main topics, the final emphasis being on design research and research ethics. (shrink)

Ethics is a foundational competency in healthcare inherent in everyday nursing practice. Therefore, the promotion of qualified nurses’ and nursing students’ moral competence is essential to ensure ethically high-quality and sustainable healthcare. The aim of this integrative literature review is to identify the factors contributing to the promotion of qualified nurses’ and nursing students’ moral competence. The review has been registered in PROSPERO (CRD42023386947) and reported according to the PRISMA guideline. Focusing on qualified nurses’ and nursing students’ moral competence, a (...) literature search was undertaken in January 2023 in six scientific databases: CINAHL, Cochrane Library, PsycINFO, PubMed Medline, Scopus and Web of Science. Empirical studies written in English without time limitation were eligible for inclusion. A total of 29 full texts were retrieved and included out of 5233 citations. Quality appraisal was employed using Joanna Briggs Institute checklists and the Mixed Method Appraisal Tool. Data were analysed using inductive content analysis. Research about the factors contributing to the promotion of qualified nurses’ and nursing students’ moral competence is limited and mainly explored using descriptive research designs. The contributing factors were identified as comprising two main categories: (1) human factors, consisting of four categories: individual, social, managerial and professional factors, and ten sub-categories; and (2) structural factors, consisting of four categories: educational, environmental, organisational and societal factors, and eight sub-categories. This review provides knowledge about the factors contributing to the promotion of qualified nurses’ and nursing students’ moral competence for the use of researchers, nurse educators, managers, organisations and policymakers. More research about the contributing factors is needed using complex intervention, implementation and multiple methods designs to ensure ethically sustainable healthcare. (shrink)

This book addresses the logical aspects of the foundations of scientific theories. Even though the relevance of formal methods in the study of scientific theories is now widely recognized and regaining prominence, the issues covered here are still not generally discussed in philosophy of science. The authors focus mainly on the role played by the underlying formal apparatuses employed in the construction of the models of scientific theories, relating the discussion with the so-called semantic approach to (...) class='Hi'>scientific theories. The book describes the role played by this metamathematical framework in three main aspects: considerations of formal languages employed to axiomatize scientific theories, the role of the axiomatic method itself, and the way set-theoretical structures, which play the role of the models of theories, are developed. The authors also discuss the differences and philosophical relevance of the two basic ways of aximoatizing a scientific theory, namely Patrick Suppes’ set theoretical predicates and the "da Costa and Chuaqui" approach. This book engages with important discussions of the nature of scientific theories and will be a useful resource for researchers and upper-level students working in philosophy of science. (shrink)

The ArgumentThis essay attempts to show the decisive importance of the “scientific discipline” for any historical or sociological analysis of modern science. There are two reasons for this:1. A discontinuity can be observed at the beginning of modern science: the “discipline,” which up until that time had been a classificatorily generated unit of the ordering of knowledge for purposes of instruction in schools and universities, develops into a genuine and concrete social system of scientific communication. Scientific disciplines (...) as concrete systems (Realsysteme) arise as a result of (a) the communicative stabilization of “scientific communities” at the end of the eighteenth century and the formation of “appropriate” roles and organizational structures (in universities); (b) the structural differentiation of the new scientific disciplines from the established professions (law, theology, medicine) in Europe; (c) the formation of scientific communication in the standardized form of scientific publication; the distinction of the separate action-type “scientific research” and the differentiation of these two elementary acts of all future scientific endeavor in relation to each other.2. The scientific discipline as primary unit of the internal differentiation of science has, since its genesis, been stabilized by two conditions: (a) The fact of a science differentiated into a plurality of (competing, mutually stimulating) disciplinary perspectives becomes the chief causal factor underlying the developmental dynamism of modern science; (b) Similar to the way in which the discipline functions as a cognitive address within the system of science, science also links the discipline up as a structural unit (utilized in both systems) with curricular structures in the system of education — i.e., it is stabilized by the central system/environment relation of science. (shrink)

At the interface of developmental biology and evolutionary biology, the very criteria of scientific knowledge are up for grabs. A central issue is the status of evolutionary genetics models, which some argue cannot coherently be used with complex gene regulatory network (GRN) models to explain the same evolutionary phenomena. Despite those claims, many researchers use evolutionary genetics models jointly with GRN models to study evolutionary phenomena. This dissertation compares two recent research projects in which researchers jointly use the (...) two kinds of models. I use methods from the empirical social sciences, such as digital corpus analysis, content analysis, and structured case analysis. I infer three primary conclusions about projects of the kind studied. First, they employ an implicit concept of gene that enables the joint use of both kinds of models. Second, they pursue more epistemic aims besides mechanistic explanation of phenomena. Third, they don’t work to create and export broad synthesized theories. Rather, they focus on phenomena too complex to be understood by a common general theory, they distinguish parts of the phenomena, and they apply models from different theories to the different parts. For such projects, seemingly incompatible models are synthesized largely through mediated representations of complex phenomena. (shrink)

: This paper seeks to contribute to the development of a sociological understanding of scientific change. It first presents a conceptual framework for defining and understanding the conditions that give rise to episodes of cumulative change (both as the selective reconstruction of events and as the patterned structuring of innovations over time and across different settings). It argues that one of the most powerful structuring mechanisms is the existence of standardized research technologies. Then, the development of electroencephalography (EEG) (...) is presented as an illustrative case study. The EEG supported a dramatic episode of development in brain science, and did so primarily through technological standardization and reliability. The case shows how standard and manipulable technologies provide a framework for orderly change both in retrospective accounts and in specific historical periods of scientific practice. (shrink)

The Quest for Physical Theory (QPT) comprises the eight Lowell lectures that Kuhn gave on Tuesdays and Fridays in March 1951 in the Lecture Hall of the Boston Library. He was 28 years old at the time, a member of the Harvard Society of Fellows, a recent Harvard PhD in Physics (1949), and an instructor in the general-education course on science set up by James Conant, Harvard’s President. Kuhn seized the opportunity of the Lowell Lectures to present his new, and (...) ground-breaking at the time, take on science which was shaped by Kuhn’s forays in psychology, philosophy, history, and logic. It is obvious from reading the lectures that Kuhn was very confident of his views and was aiming to jolt the public with his revisionary account. To a complacent audience, accustomed to the standard, textbook picture of science, he hurled the provocative claims that there are no pure facts, that prejudice plays a decisive role in scientific practice, that the then-current history of science fabricated mythologies about past science, that perception is not passive, and that the overthrow of a theory does not add to previous knowledge. All these claims more than foreshadow the basic elements of Kuhn’s model in The Structure of Scientific Revolutions (SSR). It is not just that the lectures speak to the emergence of Kuhn’s ideas that were later refined, as George Reisch, the editor of QPT, says in his introductory essay. The lectures show that Kuhn had conceived his model, almost in its entirety, very early on, which means that the much-debated influence exercised on him by later works, such as Toulmin’s, Hanson’s, or Polanyi’s in the 1950s, was secondary to the exploratory readings of his youth. These later influences must have solidified his early conception. (shrink)

Debates about scientific (though rarely about otherforms of) knowledge, research policies or academic trainingoften involve a controversy about whether scientificknowledge possesses just “instrumental” value or also “intrinsic” value. Questioning this common simpleopposition, I scrutinize the issues involved in terms of agreater variety of structural types of values attributableto (scientific) knowledge. (Intermittently, I address thepuzzling habit of attributing “intrinsic” value to quitedifferent things, e.g. also to nature, in environmentalethics.) After some remarks on relevant broader philosophicaldebates about scientific (...) knowledge, I pave a path throughthe (terminological) thicket of structural types of values. Our initial simple opposition is shown to conflate thedistinctions intrinsic/extrinsic and instrumental (or justuseful)/final. Next, I consider the value(s) of knowledgeand knowing in general and their possible value components(like the values of truth and justifiedness). After havingdiscussed the types of value of everyday knowledge,especially its functional and constitutive value (notionsintroduced earlier), I argue that these can or should alsobe attributed to scientific knowledge, thus departing fromboth objectivist and sociological views of science. One could say that I offer a certain defense of theintrinsic value of scientific knowing (and the inherentvalue of scientific knowledge) and some importantdifferentiations of its “instrumental values”. I alsocaution (in relation with my puzzle) against drawing hastymoral conclusions. (shrink)

Research integrity is fundamental to the validity and reliability of scientific findings, and for ethical conduct of research. As part of PRINTEGER (Promoting Integrity as an Integral Dimension of Excellence in Research), this study explores the views of researchers, research managers, administrators, and governance advisors in Estonia, Italy, Norway and UK, focusing specifically on their understanding of institutional and organisational influences on research integrity.A total of 16 focus groups were conducted. Thematic analysis of the (...) data revealed that competition is pervasive and appeared in most themes relating to integrity. The structural frameworks for research such as funding, evaluation and publication were thought to both protect and, more commonly, undermine integrity. In addition, institutional systems, including workload and research governance, shaped participants’ day-to-day work environment, also affecting research integrity. Participants also provided ideas for promoting research integrity, including training, and creating conditions that would be supportive of research integrity.These findings support a shift away from individual blame and towards the need for structural and institutional changes, including organisations in the wider research environment, for example funding bodies and publishing companies. (shrink)

_Purpose._ This research involves revealing the methodological significance of the anthropological understanding of values for conducting modern scientific research. _Theoretical basis._ Philosophical anthropology acts as an epistemological basis for answers to ontological questions that are part of the structure of such problems in modern science as the construction of a scientific picture of the world, the ordering of data of natural attitude, and anthropocosmism. The ontological basis for the formation of the anthropological theory of values (...) is the teaching of Wilhelm Leibniz, Immanuel Kant, Rudolf Lotze, and Martin Heidegger. _Originality._ The creation of a scientific picture of the world, the research of natural attitude, and an anthropological approach to cosmology carried out from the viewing angle of the philosophy of values show the close mutual conditioning of these scientific issues. A successful determination of one’s value positions by a scientist-researcher is impossible without his/her agreeing with his/her picture of the world with the prevailing ideas about the world in their society. Such ideas are studied by anthropocosmism, which researches not so much the world in itself, but a view of this world from the standpoint of the existing state of society and the main intentions of its development. _Conclusions._ The value attitude of scientists at a certain stage of the development of scientific knowledge forms their picture of the world, which has the form of self-explanatory scientific provisions. The facts of modern physics must always, one way or another, receive their legitimation through the world of the human natural attitude. Even the unobservable characteristics of the microcosm are explained by appealing to knowledge about the observable characteristics of the world. The anthropocentric nature of cosmology is determined by the fact that in modern philosophy, the values of a person explain not only the way of one’s cognition but also the way of one’s inclusion in the world. (shrink)

The Extended Evolutionary Synthesis (EES) debate is gaining ground in contemporary evolutionary biology. In parallel, a number of philosophical standpoints have emerged in an attempt to clarify what exactly is represented by the EES. For Massimo Pigliucci, we are in the wake of the newest instantiation of a persisting Kuhnian paradigm; in contrast, Telmo Pievani has contended that the transition to an EES could be best represented as a progressive reformation of a prior Lakatosian scientific research program, with (...) the extension of its Neo-Darwinian core and the addition of a brand-new protective belt of assumptions and auxiliary hypotheses. Here, we argue that those philosophical vantage points are not the only ways to interpret what current proposals to ‘extend’ the Modern Synthesis-derived ‘standard evolutionary theory’ (SET) entail in terms of theoretical change in evolutionary biology. We specifically propose the image of the emergent EES as a vast network of models and interweaved representations that, instantiated in diverse practices, are connected and related in multiple ways. Under that assumption, the EES could be articulated around a paraconsistent network of evolutionary theories (including some elements of the SET), as well as models, practices and representation systems of contemporary evolutionary biology, with edges and nodes that change their position and centrality as a consequence of the co-construction and stabilization of facts and historical discussions revolving around the epistemic goals of this area of the life sciences. We then critically examine the purported structure of the EES—published by Laland and collaborators in 2015—in light of our own network-based proposal. Finally, we consider which epistemic units of Evo-Devo are present or still missing from the EES, in preparation for further analyses of the topic of explanatory integration in this conceptual framework. (shrink)

The English Synopsis is after the text of the book. The book presents an original and generalizing substantive vision of the philosophy of science through the prism of a detailed analysis of the polysystem structure of scientific theories. Theories are considered, firstly, as complex specialized forms of developed scientific thinking about the realities studied by natural science, secondly, as constantly improving tools for producing new knowledge in interaction with experimental research, and thirdly, as carriers of ordered (...) and verified knowledge. Emphasis is placed on their nominal and ontic subsystems. The book develops personal and joint research of the authors (theoretical physicist and philosopher), the experience of teaching philosophy of physics at NaUKMA, philosophy of science at the Higher School of Philosophy at the H. Skovoroda Institute of Philosophy of the National Academy of Sciences of Ukraine and theoretical physics at the National Technical University "Ihor Sikorsky Kyiv Polytechnic Institute". The research is based on a significant source base covering works of modern Western researchers in natural science and philosophy of science. For students, teachers, and scientists who are interested in the problems of modern philosophy of science and have a certain amount of scientific knowledge. It will also be useful for high school students who are eager to become scientists. (shrink)

The paper advances a new comprehensive complex approach to the investigation of the civilizational aspects in the development of regional associations of countries. The research starts with the overview of historical dimensions of the civilizational approach and the contribution of the founding scholars to its development. It continues with the analysis of the scientific and methodological input of the followers and the critics of this approach. The authors suggest their theoretical approach to the identification of the modern local (...) civilizations according to six parameters: natural, biological, technical, economic, social, and governing. The civilizational affiliation of countries and the civilizational structure of major 17 regional associations of countries are identified. The results demonstrate that some regional groups have been more homogeneous in terms of civilizational composition, others – less homogeneous, which does not interfere with their dynamic development. However, the logic of the historical dynamics of human development indicates the inevitability of changing the current situation through prolonged civilizational conflicts resulting in significant changes in the global social dynamics and the civilizational structure of the world and of regional associations of countries. The identification of the civilization structure of countries and regional associations contributes to the rational decision-making in the areas of international economic relations and to the formation of the integration/disintegration policies on the national and regional levels. It is predicted that from 2030 global social dynamics will undergo a fundamental breakthrough that will radically change the civilizational structure of the world and regional unions of countries. Methods. The research is based on the application of the systemic and historical approach, combined with the methods of analysis, synthesis, analogy, abstraction, generalization and method of individual expert assessment. Novelty of the research. The authors have identified the civilizational structure of countries using statistically available criteria for the six groups of factors, which allows to determine the homogeneity level of the major regional groups of countries. Practical significance. Identification of civilization structure of countries and regional associations creates the opportunity for adjusting national and subregional integration and disintegration policies. The aim of the study is to determine the civilizational structure of the regional associations of countries. To achieve this goal the following tasks are set and solved: –to analyze and optimize the existing approaches to the identification of local civilizations; –to identify the current state of the countries’ belonging to this or that civilization, their civilizational structure; –to reveal the civilizational structure of the major regional blocs. (shrink)

The significance of political-economic context for scientific citizenship is argued through an analysis of New Zealand’s Royal Commission on Genetic Modification. My intention is not to provide an account of why the commission came to the decisions it did but to illustrate how the political-economic context and the culture of regulatory science both exacerbate public concerns about unacknowledged uncertainty and commercial influence and make it difficult for those concerns to influence the outcomes of public dialogues. The discursive flexibility of (...) science as alternately predictive and provisional silences concerns about uncertainty, while a further interpretive choice of science as the autonomous activities of individuals unconstrained by political-economic context occludes the nature of concerns about commercial influence. Rather than the increasingly prevalent focus on processes of engagement, I argue that it is essential that researchers in this area attend to how public dialogue is placed in relation to the cultures and structures of regulatory science and neoliberalism. (shrink)

The development of the philosophy of science in the twentieth century has created a framework where issues concerning funding dynamics can be easily accommodated. It combines the historical-philosophical approach of Thomas Kuhn. The University of Chicago Press, Chicago, [1962] ) with the sociological approach of Robert K. Merton The sociology of science. Theoretical and empirical investigations. The University of Chicago Press, Chicago, pp 267–278, [1942] ), linking the ‘exact’ sciences to economy and politics. Out of this came a new domain, (...) namely the study of scientific practices : Science as practice and culture. The University of Chicago Press, Chicago, 1992). Given this broad theoretical framework, we will specify by looking at the case of STEM education and its variant Science, Technology, Engineering and Mathematics with Art education as an example par excellence. Without going into the technical details of the financial support of the projects, we prefer to open a philosophical debate on the way how policies on academic subjects influence a whole society and the personal life of both researchers and people/pupils involved in education. (shrink)

The behavior/structure methodological dichotomy as locus of scientific inquiry is closely related to the issue of modeling and theory change in scientific explanation. Given that the traditional tension between structure and behavior in scientific modeling is likely here to stay, considering the relevant precedents in the history of ideas could help us better understand this theoretical struggle. This better understanding might open up unforeseen possibilities and new instantiations, particularly in what concerns the proposed technological modification (...) of the human condition. The sequential structure of this paper is twofold. The contribution of three philosophers better known in the humanities than in the study of science proper are laid out. The key theoretical notions interweaving the whole narrative are those of mechanization, constructability and simulation. They shall provide the conceptual bridge between these classical thinkers and the following section. Here, a panoramic view of three significant experimental approaches in contemporary scientific research is displayed, suggesting that their undisclosed ontological premises have deep roots in the Western tradition of the humanities. This ontological lock between core humanist ideals and late research in biology and nanoscience is ultimately suggested as responsible for pervasively altering what is canonically understood as “human”. (shrink)

This book is the second of two volumes devoted to the work of Theo Kuipers, a leading Dutch philosopher of science. Philosophers and scientists from all over the world, thirty seven in all, comment on Kuipers’ philosophy, and each of their commentaries is followed by a reply from Kuipers. The present volume is devoted to Kuipers’ neo-classical philosophy of science, as laid down in his Structures in Science . Kuipers defends a dialectical interaction between science and philosophy in that he (...) views philosophy of science as a meta-science which formulates cognitive structures that provide heuristic patterns for actual scientific research, including design research. In addition, Kuipers pays considerable attention to the computational approaches to philosophy of science as well as to the ethics of doing research. Thomas Nickles, David Atkinson, Jean-Paul van Bendegem, Maarten Franssen, Anne Ruth Mackor, Arno Wouters, Erik Weber & Helena de Preester, Eric Scerri, Adam Grobler & Andrzej Wisniewski, Alexander van den Bosch, Gerard Vreeswijk, Jaap Kamps, Paul Thagard, Emma Ruttkamp, Robert Causey, Henk Zandvoort comment on these ideas of Kuipers, and many present their own account. The present book also contains a synopsis of Structures in Science. It can be read independently of the first volume of Essays in Debate with Theo Kuipers, which is devoted to Kuipers’ From Instrumentalism to Constructive Realism. (shrink)

The ability of powerful and well-funded interest groups to steer scientific research in directions that advance their goals has become a significant social concern. This ability is increasingly being recognized in the peer-reviewed literature and in the findings of deliberative expert consensus committees. For example, there is increasing recognition that efforts to address climate change have been stymied in part by a powerful network of conservative foundations, which fund think tanks and other organizations that constitute a “climate change (...) counter movement”. Sociologist Robert Brulle recently found that the total annual income for 91 powerful.. (shrink)

The purpose of the study is to substantiate and develop the author's model of the structure of the life world of a modern person based on the analysis of fundamental sociophilosophical ideas about the structuring of the human life world. The scientific novelty consists in generalizing the views of various representatives of the phenomenological direction on the human life world and structuring the life world of a modern person, taking into account such factors as the socio-biological nature of (...) a person, the multidimensional nature of the human psyche and the peculiarities of the space of everyday life of a modern person. As a result, it is proved that the structure of the life world of a modern person is nothing more than a three-component system formed by the "objective world", reflecting the biological essence of a person and the experience of scientific research accumulated by mankind, the "social world", reflecting the social essence of a person and the moral and ethical norms developed by mankind, the" inner world", reflecting the peculiarities of the functioning of the human psyche in cognitive, emotional, evaluative and behavioral aspects. (shrink)

Three events, which happened all within the same week some ten years ago, set me on the track which the book describes. The first was a reading of Emile Meyerson works in the course of a prolonged research on Einstein's relativity theory, which sent me back to Meyerson's Ident ity and Reality, where I read and reread the striking chapter on "Ir rationality". In my earlier researches into the origins of French Conven tionalism I came to know similar views, (...) all apparently deriving from Emile Boutroux's doctoral thesis of 1874 De fa contingence des lois de la nature and his notes of the 1892-3 course he taught at the Sorbonne De ['idee de fa loi naturelle dans la science et la philosophie contempo raines. But never before was the full effect of the argument so suddenly clear as when I read Meyerson. On the same week I read, by sheer accident, Ernest Moody's two parts paper in the JHIof 1951, "Galileo and Avempace". Put near Meyerson's thesis, what Moody argued was a striking confirmation: it was the sheer irrationality of the Platonic tradition, leading from A vem pace to Galileo, which was the working conceptual force behind the notion of a non-appearing nature, active all the time but always sub merged, as it is embodied in the concept of void and motion in it. (shrink)

How should scientists judge the quality of research articles? In this article I present general criteria for judging the scientific value of a research report submitted for publication. These criteria can improve the quality of research articles and produce fair referee reports that are scientifically justifiable. My view is based on four fundamental rules that guide all good science. These rules ought to determine whether scientific research reports merit publication in scientific journals. The (...) rules for good science also structure this article. They are as follows. [1] Scientists must use specialised problem-solving; [2] scientists must refer to previous work; [3] scientists must justify their findings; and [4] scientists must convince their scientific community. (shrink)