The epistemological ideal would aim to respect the different scientific traditions from which the scientist can be fed, which may not follow the hegemonic lines. Interpersonality in science would mean a scientific multiculturality that respects the different paradigms developed in epistemology. We will see which epistemological conception has a closer relation with the dimensions that trialism proposes, according to which law is composed with sociologic, normologic and dikelogic elements. In the end, it will be possible to have (...) a clearer idea of the complexity in a more diverse sense, which develops trialism not only as the vision of the lawyer’s profession, but also as a research perspective. The complex thought, as an epistemological attitude which is open to the different methodological tools provided by the different epistemological perspectives in the philosophy of science, allows a better coexistence of contradictory positions within a single epistemological posture. Thus, a scientist can profit from the different tools in each of them. Having proved the close relation between the trialistic theory and the complex thought, a scientist of law will be able to develop deeper research lines, having more respect for his tendencies in the trialism. El ideal epistemológico apuntaría a que se respeten las distintas tradiciones científicas en las que pueda abrevar el científico, que pueden no seguir las líneas hegemónicas. La interpersonalidad en la ciencia significaría una multiculturalidad científica respetuosa de los distintos paradigmas que se desarrollan en la Epistemología. Veremos qué concepción epistemológica se relaciona más con las dimensiones que plantea el trialismo según el cual el Derecho está compuesto de elementos sociológicos, normológicos y valorativos (dikelógicos). Al final de lo cual se hará más clara la complejidad, en el sentido de diversidad, que desarrolla la teoría trialista como perspectiva de investigación, y no sólo como herramienta para la profesión abogadil. El pensamiento complejo, como actitud epistemológica abierta a las distintas herramientas metodológicas que provienen de las diversas perspectivas en filosofía de la ciencia, permite una mayor convivencia de posiciones contrarias al interior de una misma postura epistemológica. Y así, un científico podrá aprovechar las distintas herramientas de cada una de ellas. Habiéndose probado la estrecha relación entre la teoría trialista y el pensamiento complejo, un científico del Derecho podrá desarrollar más líneas de investigación y con mayor profundidad, respetándose más sus tendencias, en el trialismo. (shrink)

A scientific paradigm typically embraces research norms and values, such as truth-seeking, critical thinking, disinterestedness, and good scientific practice. These values should prevent a paradigm from introducing defective assumptions. But sometimes, scientists who are also physicians develop clinical norms that are in conflict with the scientific enterprise. As an example of such a conflict, we have analyzed the genesis and development of the shaken baby syndrome paradigm. The point of departure of the analysis is a recently conducted (...) systematic literature review, which concluded that there is very low scientific evidence for the basic assumption held by Child Protection Teams: when certain signs are present the infant has been violently shaken. We suggest that such teams have developed more value-based than scientific-based criteria when classifying SBS cases. Further, we suggest that the teams are victims of “groupthink,” aggravating the difficulties in considering critics’ questioning the criteria established by the teams. (shrink)

Beginning with relativity and quantum theory, the deterministic view that has dominated and shaped Western culture for more than 2,500 years has begun to unravel, leading to the emergence of a new paradigm. This new paradigm effectively reformulates the project of science, conceiving of existence as an interpenetrating web of coevolving, cocreative relationships. By exploring Kabbalah and the new scientific paradigm within the context of shared evolutionary principles, I seek to demonstrate a viable alternative to the prevailing deterministic worldview. (...) By going beyond the limits of determinism and re–visioning existence as an evolutionary, emergent phenomenon, we can establish a new basis for an authentic dialogue between science and religion. (shrink)

The notion of incommensurability as applied to competing scientific theories was challenged on various grounds ever since the publication of The Structure of Scientific Revolutions . Kuhn’s critics argue that the notion of incommensurability is either incoherent , or false . This paper challenges both interpretations. I attempt to show that the claim that scientific paradigms are incommensurable implies neither that the one cannot be translated into another’s ‘language’, nor that they cannot be compared to each (...) other with regard to the scope of their respective applications, precision of predictions, or simplicity. However, it is argued that there is a sense in which one can claim that the incommensurable theories cannot be meaningfully compared, namely, when by ‘comparison’ is meant ‘a comparison of theories with how the things really are’. (shrink)

The article considers the influence of the scientific world picture on the forms and modes of the existence of art. The author reveals the epistemological function of art in various historical periods of changing scientific paradigms, outlines the role of art in the Middle Ages (pre-scientific knowledge), the Renaissance, the New Age (classical scientific paradigm), and the period of the late 19th – first half of the 20th centuries (non-classical scientific paradigm). Particular attention is (...) paid to modernism, in the art of which the epistemological function is largely realized, and artists embody the achievements of the contemporary scientific world picture in new forms, reflecting the complexity of new scientific theories that an ordinary person must take for granted. (shrink)

Pursuit of every scientific framework — that is, of a paradigm and philosophy for science — is underwritten by a practical act of faith that its cognitive apparatus — including concepts, classes of models and underlying mathematics, and experimental instruments, techniques and interpretations — is adequate to understand the domain concerned. The focus of this essay is the consequences of the cognitive apparatus of complex systems for methodology, epistemology and metaphysics.

This text was presented in the Conference “Rhythm as Pattern and Variation : Political, Social and Artistic Inflections, Goldsmiths College — University of London, on April 23, 2016. Recent Development of Rhythmic Studies The first thing that becomes obvious when you document, as I have been doing for the last five years, the studies dedicated in human and soc­ial science to rhythmic phenomena or using rhythm as operating concept—whatever its definition—is the rapid increase in their number. - Vers un nouveau (...) paradigme scientifique? – Nouvel article. (shrink)

Marcos Eberlin is a chemist and mass spectrometer who advances in a new book a refined Intelligent Design theory hinging on “foresight,” or the apparent teleology and purpose discernible in biological, chemical, and other complex life systems. Repurposing older ID arguments, such as those of “irreducible complexity,” and introducing new examples of phenomena pointed to by other ID theorists, Eberlin makes a strong argument for mindful creation by a “superintellect”. But is ID sufficient to answer Darwinism? Does “foresight” go far (...) enough in providing an alternative view of the origin of complex lifeforms? I argue that Eberlin, and other ID theorists, does not have a robust-enough definition of science to counter non-theistic theories of biology and biochemistry. An Aristotelian-Thomistic understanding of science allows us to go beyond the divide between ID and a-theistic theories and move the science-and-faith debate onto more solid ground. (shrink)

This paper investigates the nature of scientific realism. I begin by considering the anomalous fact that Bas van Fraassen’s account of scientific realism is strikingly similar to Arthur Fine’s account of scientific non-realism. To resolve this puzzle, I demonstrate how the two theorists understand the nature of truth and its connection to ontology, and how that informs their conception of the realism debate. I then argue that the debate is much better captured by the theory of truthmaking, (...) and not by any particular theory of truth. To be a scientific realist is to adopt a realism-relevant account of what makes true the scientific theories one accepts. The truthmaking approach restores realism’s metaphysical core—distancing itself from linguistic conceptions of the debate—and thereby offers a better characterization of what is at stake in the question of scientific realism. (shrink)

Ethnomethodology has been torn between scientific and "radical" aspirations insofar as it moves discoursive practices from resources to the topic of the study. Scientific ethnomethodology, such as conversation analysis, studies discoursive praxis as its topic and resource. Standard scientific criteria are accepted to assess the merits of its findings. "Radical" ethnomethodology addresses mundane reasoning exclusively as its topic without recourse to standardized science. I will show that insofar as "radical" ethnomethodology succeeds in bracketing everyday resources, it loses (...) its phenomenon with the very technical skills it uses for this task. This reconsideration enables the development of ethnomethodological social science. Key Words: conversation analysis • discoursive praxis • ethnomethodology • radical ethnomethodology • social studies of science. (shrink)

The current state of philosophy of science is characterized by stasis in the struggle between realism and antirealism. In recent years, a number of authors have come out with a program of scientific perspectivism that claims to sublate this great collision and gain the status of a new epistemological paradigm: “perspectivism, or, better, perspectival realism, is one of the newest attempts to find a middle ground between scientific realism and antirealism” [1. P. 2]. Important milestones of the perspective (...) movement were the works of Ronald Giere, Francois Recanati, Bas van Fraassen, Michela Massimi, and others. The thesis of the article is that perspectivism has not yet realized its claims to autonomy, although it has become an important new arena for discussions between realists and antirealists who try to appropriate perspectivist concepts and arguments. The “middle ground,” when thought out consistently and thoroughly, turns out to lie not “between,” but either in the territory of realism or in the territory of antirealism, depending on the presumptions of the author of a particular perspectivist conception. This is demonstrated by the analysis of the conceptions of Giere, Massimi, and Recanati. Giere’s perspectivism is based on the metaphor of color vision, and for him only some (secondary) qualities of real objects turn out to be perspectival, i.e., subject-dependent. Massimi’s perspectivism attempts, on the basis of a visual arts metaphor, to combine the phenomenon of the plurality of scientific theories (“perspectival disagreement” about what an object is) with the general realist attitude of science (agreement about that there is an object). Recanati’s perspectivism syncretizes realism about ordinary objects and relativism about other things. The first two versions of perspectivism rely on a perceptual metaphor: perspective is conditioned by the perceptual constitution of the observer, that is, it arises at the mental or cognitive level. Recanati’s version attempts to derive perspective from contextuality, that is, it is semantic. However, it does not show exactly how perceptual categories are superimposed on theories or how scientific concepts reveal their perspectival character. The isomorphism of perception and theoretical thinking, sensibility and understanding, remains undemonstrated. On the one hand, perspectivist efforts are motivated by an important concern to account for antirealist critique (lack of access to the “view from nowhere,” factual and semantic underdetermination, difficulties with the idea of approaching the truth, the historicity of knowledge, the activeness of the constructing subject, etc.) while preserving the scientific commitment to universality, validity, and truthfulness. On the other hand, the ontological question remains fundamental and unavoidable, and perspectivism (yet?) fails to circumvent it. As we see, all three versions of perspectivism considered in this article turn out to be varieties of realism: Giere and Massimi recognize this explicitly, while Recanati de facto assumes a quite respectable and conservative position of selective realism with respect to ordinary objects. (shrink)

In Paradigms and Barriers Howard Margolis offers an innovative interpretation of Thomas S. Kuhn's landmark idea of "paradigm shifts," applying insights from cognitive psychology to the history and philosophy of science. Building upon the arguments in his acclaimed Patterns, Thinking, and Cognition, Margolis suggests that the breaking down of particular habits of mind—of critical "barriers"—is key to understanding the processes through which one model or concept is supplanted by another. Margolis focuses on those revolutionary paradigm shifts— such as the (...) switch from a Ptolemaic to a Copernican worldview—where challenges to entrenched habits of mind are marked by incomprehension or indifference to a new paradigm. Margolis argues that the critical problem for a revolutionary shift in thinking lies in the robustness of the habits of mind that reject the new ideas, relative to the habits of mind that accept the new ideas. Margolis applies his theory to famous cases in the history of science, offering detailed explanations for the transition from Ptolemaic to cosmological astronomy, the emergence of probability, the overthrow of phlogiston, and the emergence of the central role of experiment in the seventeenth century. He in turn uses these historical examples to address larger issues, especially the nature of belief formation and contemporary debates about the nature of science and the evolution of scientific ideas. Howard Margolis is a professor in the Harris Graduate School of Public Policy Studies and in the College at the University of Chicago. He is the author of Selfishness, Altruism, and Rationality and Patterns, Thinking, and Cognition, both published by the University of Chicago Press. (shrink)

Dr. Strange sees Dr. Stephen Strange abandon his once-promising medical career to become a superhero with the ability to warp time and space, and to travel through various dimensions. In order to make this transition, he is required to abandon many of his previous assumptions about the way the world works and learn to see things in a new way. Importantly, this is not merely a matter of learning a few facts, or of mastering new techniques. Instead, Dr. Strange is (...) required to alter his conception of the basic nature of the world and of how he relates to it. In time, this change extends to his values as well, as Strange comes to embrace his role in safeguarding the human world from interdimensional threats. -/- It is tempting to interpret Dr. Strange’s experience as one that shows the limits of rational, scientific inquiry, or even of human knowledge more generally. However, in this essay, I’d like to explore a different interpretation: that Strange’s experience can most fruitfully be thought of as a scientific revolution, in which Strange moves from one way of carrying out scientific inquiry to a different, incompatible way of doing it. In order to do this, I’ll be exploring the work of philosopher and historian of science Thomas Kuhn, who wrote a book—The Structure of Scientific Revolutions--about just this topic. Among other things, Kuhn’s work introduced the highly useful (though commonly misunderstood) notion of a paradigm shift. -/- We’ll begin by exploring what Kuhn describes as normal science, which consists of applying a set of well-understood concepts and methods to problems of interest. This “puzzle-solving” aspect of science is exemplified by Strange’s early successes in medicine. During this stage, scientists have good reasons to avoid questioning the basic validity of their paradigm, and to instead blame any problems that arise on other factors, such as human error. (As fans will know, Strange is quite good at assigning blame in just this way.) A crisis only occurs when significant, serious anomalies have accrued, such as those that Strange encounters in the aftermath of his accident. Even then, however, the old paradigm will only be abandoned only if a new paradigm can be found. Again, Strange’s experience bears this out, as he is able to move on only when the Sorcerer Supreme introduces him to the Mystic Arts. -/- Along the way, we’ll consider what it means for a practice to count as a scientific paradigm, and why it’s not just “anything goes.” Among other things, a paradigm requires that practitioners agree on which problems are most important, which techniques are appropriate to which problems, and what exemplary models of successful work look like. The Mystic Arts of Strange’s world, unlike the pseudoscientific theories of our own, plausibly do quite well on these sorts of criteria. (shrink)

This is a response to a short communication on our research presented in Solbrække et al. :89–103, 2017), which raises a series of serious allegations. Our article explored the rise of ‘the breast cancer gene’ as a field of medical, cultural and personal knowledge. We used the concept biological citizenship to elucidate representations of, and experiences with, hereditary breast cancer in a Norwegian context, addressing a research deficit. In our response to Møller and Hovig’s :239–242, 2018a) opinionated piece, we start (...) by questioning on which scientific grounds they base their knowledge claims and situate their criticism in a pre-determined positivist script, which exposes their incompetency when it comes to establishing a useful critique of our research. We tie this to an attitude of scientific supremacy, which reduces the complexity and specificity of different knowledges into a clichéd divide between ‘hard evidence’ and ‘fiction’—presented in a predictable narrative which seeks to establish research protagonists and antagonists. We elaborate on the rationale of our qualitative approach to analyzing and interpreting situated and mediated aspects of BRCA 1/2. We counter claims that our research does harm to patients. We refer to a medical scandal emerging from Norway where 21 women were wrongfully diagnosed and surgically treated for a mis-interpreted cancer gene mutation. In conclusion, we stand by the integrity of our research as reported in the original paper. Scientific supremacy and pre-scripted criticism impose considerable obstacles for the possibility of establishing interdisciplinary dialogue across knowledge paradigms in health care and medicine. We therefore urge readers to reflect on how we can establish and sustain ethically careful and truthful dialogue—without doing violence to epistemological differences—to protect and advance the interdisciplinarity that constitutes the journal’s scope. (shrink)

This paper starts with an intuitive notion of representational spaces, which is intended to provide an improved version of Kuhn's concept of paradigms. It then proceeds to study the following topics in terms of this new notion: incommensurability, paradigm change, explanation of anomalies, explanation of regularities, explanation of irregularities, and physical necessity. In the course of the investigation, "representational space" gets clarified and defined. It is envisaged that this new concept should throw light on many issues in the philosophy (...) of science. (shrink)

One of the central problems arising from just the descriptive aspect of Kuhn's theory of scientific development by revolutions concerns the problem of generality. Is Kuhn's theory general enough to encompass the development of all the sciences, including both the natural sciences and the social sciences? The answer to this question is no. It is argued that this negative answer is due not to the nature of the sciences themselves but to the nature of Kuhn's theory and, in particular, (...) its local and reductionistic perspective. First steps toward the construction of a more global and more pluralistic descriptive theory of scientific development are taken. The development of significant episodes in the history of sciences other than physics and chemistry are considered. The immediate goals are to correct the narrow base from which Kuhn starts, to show how some of his basic ideas might be preserved, and to indicate how a theory of types would proceed. (shrink)

The book, with its emphasis on the interaction of microstructures with the entire biosphere, ecosystems etc., and on how micro- and macrocosmos mutually create the conditions for their further evolution, provides a comprehensive framework for a deeper understanding of human creativity in a time of transition.

In this study of the cognitive paradigm, De Mey applies the study of computer models of human perception to the philosophy and sociology of science. "A most stimulating, and intellectually delightful book."--John Goldsmith "[De Mey] has brought together an unusually wide range of material, and suggested some interesting lines of thought, about what should be an important application of cognitive science: The understanding of science itself."-- Cognition and Brain Theory "It ought to be on the shelf of every teacher and (...) researcher in the field and on the reading list of any student or practitioner seriously interested in how those they serve are likely to set about knowing."-- ISIS. (shrink)

In the Kuhnian and Post-Kuhnian Philosophy of Science, it is widely accepted that scientific revolutions always involve the replacement of an old paradigm by a new paradigm. This article attempts to refute this assumption by showing that there are paradigm-constellations that conform to the relation of a scientific revolution in a Kuhnian sense without a paradigm-replacement occurring. The paradigms investigated here are the linguistic paradigms of Generative Grammar and Construction Grammar that, contrary to Kuhn’s conception of (...) a sequence of paradigm-replacements, are reconstructed as coexisting competing paradigms. By choosing linguistic paradigms, Kuhn’s assumption that paradigm-led research takes place only in the natural sciences is implicitly challenged, and an insight into linguistic theory-construction largely underrepresented in the philosophy of science is given. (shrink)

The aim of this paper is to show that the logical approach to philosophy of science could be further improved with tools like the ones put forward by Schurz in his proposal to model scientific theory development. Section 2 is a presentation of the basics in AGM epistemology of logical abduction and of their connection. In Sect. 3 several operations for theory change proposed by Schurz (2011; 2018) are presented, followed by my own proposal of a further case of (...) hypothesis refinement, consisting of the instantiation of an existential abduction. Section 4 offers a discussion and conclusions. (shrink)

Discoveries in physics imply two elements. The firstone is the belief that formal tools, already foundedin the framework of existing mathematical theories,may offer the solution to a puzzling anomaly. Thesecond one is the ability to assign a physical meaningto the adopted formalism, and to consider all itstheoretical implications.Discussing an historical case where the adoption of aparticular formalism represents the real motor of thecreative intuition, we mean to delineate scientificdiscovery both as a discontinuous change with respectto previous achievements and as a (...) linear process ofknowledge enrichment. (shrink)

One of the most enduring contributions of Sir Karl Popper to the philosophy of science was his deductive approach to the scientific method, as opposed to Hilary Putnam’s absolute faith in science as an inductive process. Popper’s logic of discovery counters the whole inductive procedure that modern science is so often identified with. While the inductive method has generally characterized how scientists commence their work in laboratories, for Popper scientific theories actually start with generalizations inside our mind whose (...) validity the scientific method must test until those come to be falsified. A step further in the scientific method is the function of paradigms that Thomas Kuhn’s revolutionary science has developed. Kuhn’s community and consensus-based approach and Popper’s hypothesis-based approach are both important in the development of science as it is. This paper seeks to show how models of development may be integrated in the above debate in order to derive insightful implications that are crucial to the understanding of economic progress and human development. (shrink)

Since Freud and his co-author Breuer spoke of dissociation in 1895, a scientific paradigm was painstakingly established in the field of unconscious cognition. This is the dissociation paradigm. However, recent critical analysis of the many and various reported dissociations reveals their blurred, or unveridical, character. Moreover, we remain ignorant with respect to the ways cognitive phenomena transition from consciousness to an unconscious mode. This hinders us from filling in the puzzle of the unified mind. We conclude that we have (...) reached a Kuhnian crisis in the field of unconscious cognition, and we predict that new models, incorporating partly the relevant findings of the dissociation paradigm—but also of dynamic psychology—, will soon be established. We further predict that some of these models will be largely based on the pairs representation–process and analog–digital. (shrink)

We examine the philosophical disputes among computer scientists concerning methodological, ontological, and epistemological questions: Is computer science a branch of mathematics, an engineering discipline, or a natural science? Should knowledge about the behaviour of programs proceed deductively or empirically? Are computer programs on a par with mathematical objects, with mere data, or with mental processes? We conclude that distinct positions taken in regard to these questions emanate from distinct sets of received beliefs or paradigms within the discipline: – The (...) rationalist paradigm, which was common among theoretical computer scientists, defines computer science as a branch of mathematics, treats programs on a par with mathematical objects, and seeks certain, a priori knowledge about their ‘correctness’ by means of deductive reasoning. – The technocratic paradigm, promulgated mainly by software engineers and has come to dominate much of the discipline, defines computer science as an engineering discipline, treats programs as mere data, and seeks probable, a posteriori knowledge about their reliability empirically using testing suites. – The scientific paradigm, prevalent in the branches of artificial intelligence, defines computer science as a natural (empirical) science, takes programs to be entities on a par with mental processes, and seeks a priori and a posteriori knowledge about them by combining formal deduction and scientific experimentation. We demonstrate evidence corroborating the tenets of the scientific paradigm, in particular the claim that program-processes are on a par with mental processes. We conclude with a discussion in the influence that the technocratic paradigm has been having over computer science. (shrink)

Thomas S. Kuhn’s monograph The Structure of Scientific Revolutions (Structure) in which Kuhn introduced his seminal phase model for the development of science was one of the most influential books in philosophy of science from the twentieth century. The central ideas about paradigms and revolutions that Kuhn presented in this monograph have not only become part of the standard curriculum across a wide range of academic fields; they have also made deep imprints on science policy as well as (...) on our everyday thinking about how frames of mind guide our actions. Kuhn’s Structure not only provided a new perspective on how science develops; it also constituted an important contribution to an emerging naturalization of scholarship in philosophy of science by arguing that philosophical analyses of science had to be based on studies of science as it had been practiced through history. -/- Despite these immense successes, reservations about Kuhn and the position that he presented in Structure have also been aired in many quarters of academia. Many philosophers have been outraged over the notion of incommensurability. Many historians have been skeptical about the appeal to general structures. This being said, Kuhn himself often had reservations about the ways in which his work was interpreted and used for purposes that he had never intended. Wray’s monograph is an examination of this intriguing tension between the immense success of Structure and the reservations that have remained against it, especially among philosophers and historians. -/- . (shrink)

In the original publication, the article title has been published incorrectly. Now the same has been corrected in this correction.

In a thought experiment we want to test how the emergence of adult neural stem cells could constitute an example for a scientific revolution in the sense of Thomas Kuhn. In his major work, The structure of scientific revolutions, 3rd edn, University of Chicago Press, Chicago (Kuhn 1996), the philosopher of science, Thomas Kuhn, states that scientific progress is not a cumulative process, but new theories appear by a rather revolutionary sequence of events. Kuhn built his theory (...) on landmark events taken from chemistry and physics, lacking examples from biology. Beginning with Ramon y Cajal’s famous quote, no new neurons after birth , from the early years of the twentieth century, and Reynolds and Weiss’s conflicting finding in 1992 of adult neural stem cells giving rise to new neurons, we will test how the finding of neural stem cells in the adult brain matches with Kuhn’s theory. The pivotal problem of defining a paradigm will be our main focus, since the emergence of adult neural stem cells has been acclaimed by the scientific community as the rebuttal of Ramon y Cajal’s paradigm. (shrink)

The Anthropocene is a radical reconceptualisation of the relationship between humanity and nature. It posits that we have entered a new geological epoch in which the human species is now the dominant Earth-shaping force, and it is rapidly gaining traction in both the natural and social sciences. This article critically explores the scientific representation of the concept and argues that the Anthropocene is less a scientific concept than the ideational underpinning for a particular worldview. It is paradigm dressed (...) as epoch. In particular, it normalises a certain portion of humanity as the ‘human’ of the Anthropocene, reinserting ‘man’ into nature only to re-elevate ‘him’ above it. This move promotes instrumental reason. It implies that humanity and its planet are in an exceptional state, explicitly invoking the idea of planetary management and legitimising major interventions into the workings of the earth, such as geoengineering. I conclude that the scientific origins of the term have diminished its radical potential, and ask whether the concept’s radical core can be retrieved. (shrink)

The ArgumentAlexandre Koyré is one of the most important historians of philosophic and scientific though since the thirties. Research on the Scientific Revolution, on Galileo, Descartes, Newton, as well as on Paracelsus and Boehme has deeply changed under his influential method: it has been a model for Kuhn's methodology of paradigms and revolutions in the histroy of science. Whereas Koyré used to be considered opposed in his ideology and method to sociological approaches, he has recently been characterized (...) by Yehuda Elkana as a sociologist of knowledge. In fact, until now one of the main sources of his method had not been identified: it is only by acknowledging the influence of Lucien Lévy-Bruhl on Koyré that it is possible to explain how the latter wrote his thesis on Boehme's mystical thought just before his Etudes galiléennes. Lucien Lévy-Bruhl was teaching history of philosophy at the Sorbonne, and Koyré was strongly influenced by his idea of “prelogical thinking” as a universel phenomenon and in a general way by the sociological school of Durkheim. Conceptual analysis deriving from Husserl, collective representations and attitude mentale, came together in Alexandre Koyrè's method. (shrink)

Conflicts of interest serve as a cipher for a radical rupture in the Flexnerian paradigm of medicine, and they can only be addressed if we recognize that health care is now practiced by institutions, not just individual physicians. By showing how "appropriate utilization of services" or "that which is medically indicated" is a function of socioeconomic factors related to institutional responsibilities, I point toward an administrative and organizational ethic as a needed component for addressing conflicts of interest. The argument is (...) developed by reviewing three important books. First, I consider Mark Rodwin's attempt to configure the economic structures of medicine so that classical fiduciary and scientific ideals can be fostered. Second, I consider E. Haavi Morreim's attempt to modify the classical ideals in order to account for new economic realities. Finally, by considering essays in a recent volume on conflicts of interest edited by Spece, Shimm, and Buchanan, I argue for a constructive dialectic between the approaches of Rodwin and Morreim. In order to properly address conflicts of interest, there must be a radical reassessment of medicine that accounts for the interrelation between scientific, ethical, and economic concerns. Until institutions come into view and professional ethics is developed to account for their role, legitimate interests and obligations of diverse parties cannot be harmonized. (shrink)

In order to perceive the world, we need more than just raw sensory input: a subliminal paradigm of thought is required to interpret raw sensory data and, thereby, create the objects and events we perceive around ourselves. As such, the world we see reflects our own unexamined, culture-bound assumptions and expectations, which explains why every generation in history has believed that it more or less understood the world. Today, we perceive a world of objects and events outside and independent of (...) mind, which merely reflects our current paradigm of thought. Anomalies that contradict this paradigm have been accumulated by physicists over the past couple of decades, which will eventually force our culture to move to a new paradigm. Under this new paradigm, a form of universal mind will be viewed as nature’s sole fundamental entity. In this paper, I offer a sketch of what the new paradigm may look like. (shrink)

Today there are two major theoretical frameworks in biology. One is the ‘chemical paradigm’, the idea that life is an extremely complex form of chemistry. The other is the ‘information paradigm’, the view that life is not just ‘chemistry’ but ‘chemistry-plus-information’. This implies the existence of a fundamental difference between information and chemistry, a conclusion that is strongly supported by the fact that information and information-based-processes like heredity and natural selection simply do not exist in the world of chemistry. Against (...) this conclusion, the supporters of the chemical paradigm have pointed out that information processes are no different from chemical processes because they are both described by the same physical quantities. They may appear different, but this is only because they take place in extremely complex systems. According to the chemical paradigm, in other words, biological information is but a shortcut term that we use to avoid long descriptions of countless chemical reactions. It is intuitively appealing, but it does not represent a new ontological entity. It is merely a derived construct, a linguistic metaphor. The supporters of the information paradigm insist that information is a real and fundamental entity of Nature, but have not been able to prove this point. The result is that the chemical view has not been abandoned and the two paradigms are both coexisting today. Here it is shown that an alternative does exist and is a third theoretical framework that is referred to as the ‘code paradigm’. The key point is that we need to introduce in biology not only the concept of information but also that of meaning because any code is based on meaning and a genetic code does exist in every cell. The third paradigm is the view that organic information and organic meaning exist in every living system because they are the inevitable results of the processes of copying and coding that produce genes and proteins. Their true nature has eluded us for a long time because they are nominable entities, i.e., objective and reproducible observables that can be described only by naming their components in their natural order. They have also eluded us because nominable entities exist only in artifacts and biologists have not yet come to terms with the idea that life is artifact making. This is the idea that life arose from matter and yet it is fundamentally different from it because inanimate matter is made of spontaneous structures whereas life is made of manufactured objects. It will be shown, furthermore, that the existence of information and meaning in living systems is documented by the standard procedures of science. We do not have to abandon the scientific method in order to introduce meaning in biology. All we need is a science that becomes fully aware of the existence of organic codes in Nature. (shrink)

Scientists have used models for hundreds of years as a means of describing phenomena and as a basis for further analogy. In Scientific Models in Philosophy of Science, Daniela Bailer-Jones assembles an original and comprehensive philosophical analysis of how models have been used and interpreted in both historical and contemporary contexts. Bailer-Jones delineates the many forms models can take (ranging from equations to animals; from physical objects to theoretical constructs), and how they are put to use. She examines early (...) mechanical models employed by nineteenth-century physicists such as Kelvin and Maxwell, describes their roots in the mathematical principles of Newton and others, and compares them to contemporary mechanistic approaches. Bailer-Jones then views the use of analogy in the late nineteenth century as a means of understanding models and to link different branches of science. She reveals how analogies can also be models themselves, or can help to create them. The first half of the twentieth century saw little mention of models in the literature of logical empiricism. Focusing primarily on theory, logical empiricists believed that models were of temporary importance, flawed, and awaiting correction. The later contesting of logical empiricism, particularly the hypothetico-deductive account of theories, by philosophers such as Mary Hesse, sparked a renewed interest in the importance of models during the 1950s that continues to this day. Bailer-Jones analyzes subsequent propositions of: models as metaphors; Kuhn's concept of a paradigm; the Semantic View of theories; and the case study approaches of Cartwright and Morrison, among others. She then engages current debates on topics such as phenomena versus data, the distinctions between models and theories, the concepts of representation and realism, and the discerning of falsities in models. (shrink)

The field of Artificial Intelligence (AI) has undergone many transformations, most recently the emergence of data-driven approaches centred on machine learning technology. The present article examines that paradigm shift by using the conceptual tools developed by Thomas Kuhn, and by analysing the contents of the longest running conference series in the field. A paradigm shift occurs when a new set of assumptions and values replaces the previous one within a given scientific community. These are often conveyed implicitly, by the (...) choice of success stories that exemplify and define what a given field of research is about, demonstrating what kind of questions and answers are appropriate. The replacement of these exemplar stories corresponds to a shift in goals, methods, and expectations. We discuss the most recent such transition in the field of Artificial Intelligence, as well as commenting on some earlier ones. (shrink)