The article discusses the problems of constructing a scientific picture of the world in a technogenic civilization at the stage of its globalization. The interdependence of science, technology and society generates a number of issues of a socio-humanitarian and, in particular, ideological nature. Interdisciplinary forms of organization of sciences contribute to the development of borderline methodologies. These methodologies integrate the achievements and problems of specific disciplines into a certain overall picture. The ambitions of this worldview include (...) space, planetary nature with all geo – shells, as well as the biosphere, technosphere, sociosphere, anthroposphere. In the course of communicative interactions, scientists have developed methodological principles for constructing a picture of the world. These principles claim to be universal: integrity, consistency, coherence, structurality, evolution/involution, complexity, self-organization, human dimension. However, epistemic and communicative difficulties accompany the construction of a general scientific picture of the world. There are methodological, experimental, linguistic, cognitive barriers between disciplines. Also, the unevenness of their development is strong. Competition between disciplines and reductionist programs are often caused by social reasons – politicization, ideologization and commercialization of big science. Philosophy seeks to connect the idea of a scientific picture of the world with a change in self-consciousness and a person’s place in the world. The prospect of intellectual synthesis fluctuates between the transdisciplinary form of organization of collective scientific thinking and the ideological imperialism of individual philosophical and scientific programs. (shrink)

Physical cosmology is one of the disciplines at the forefront of modern science. Using existing physical theories and creating own ones, it describes the dynamics and evolution of the Universe, transforms and modernizes the scientific picture of the world on the largest possible scale. The article analyzes the main presuppositions and outcomes of nowadays cosmology, which are based on fundamental physical principles (theories) and astronomical observations. It has been revealed that throughout its existence as a science (about (...) 100 years), cosmology stimulated the emergence of a plenty of worldview-philosophical problems. Therefore, we need a comprehensive update of the philosophy of cosmology, which can help to realize such problems. Given the need for cooperation between cosmology and the philosophy of science, we propose to use various methodological, ontological, epistemological and other philosophical techniques to solve philosophical problems arising in cosmological research, as well as to generalize the existing knowledge about the Universe. (shrink)

This paper examines the ways in which familiar views about the world and our place in it must change in the face of the reality of psi phenomena. It is argued that most commentators are confused on this topic. Contrary to the received opinion, the existence of psi should make almost no difference to our currently accepted body of scientific theories. Nor, as some argue, can it be of much help to a defense of dualism. But the existence (...) of psi has profound implications regarding the pervasiveness of intentions in the world, even in connection with everyday sorts of events. The view is defended that we have no grounds for imposing antecedent restrictions on the range, magnitude, or refinement of psi. Finally, the paper discusses how the evidence for precognition forces serious consideration of a world?view generally associated only with so?called ?primitive? cultures. (shrink)

The author examines the idea of "mind" in three linguistic pictures of the world - Russian, French and Chinese. The study is contrastive, the results are compared. The description of each idea is made according to a clear algorithm: the etymology of the word, the mythological roots of the concept, its compatibility, from the compatibility is distinguished real connotation according to V. A. Uspensky, a comparison of dictionary definitions is made. The aim of the study is to identify the (...) peculiarities of the idea of "mind" in the Russian, French and Chinese languages. The purpose of the comparison is to see the similarities and differences in the worldview of different peoples. Scientific methods of research are: comparative-historical method, method of generalization, method of semantic analysis. This topic is understudied, no linguocultural studies analyzing this idea in Russian, French and Chinese culture have been observed earlier, which constitutes the scientific novelty of the work. The results will contribute to mutual understanding between peoples, forming a kind of conceptual bridge, and will also be used in courses on regional studies, comparative studies of cultures, and in the teaching of the respective languages. (shrink)

In this 1976 volume, Professor Ziman paints a broad picture of science, and of its relations to the world in general. He sets the scene by the historical development of scientific research as a profession, the growth of scientific technologies out of the useful arts, the sources of invention and technical innovation, and the advent of Big Science. He then discusses the economics of research and development, the connections between science and war, the nature of (...) science policy and the moral dilemmas of social responsibility in science. Each topic is introduced by reference to easily understandable particular examples, with a large number of illustrations chosen to bring out the concreteness and reality of science as a human activity. Professor Ziman gives a chapter-by-chapter list of suggested topics for oral and written discussion, intended to provoke critical, sceptical attitudes to simplified solutions to real issues, and comments briefly on relevant books and other sources. (shrink)

The review of the theory of electromagnetic field together with the special and general theories of relativity has been made. The similar theory of gravitation has been presented which has the property of Lorentz-invariancy in its own representation in which the information is transferred at the speed of propagation of the gravitational field. Generalization of the specified gravitation theory on noninertial reference systems has been made with the help of the mathematical apparatus of the general relativity. It allows (...) to avoid some drawbacks of the standard general relativity theory and to expand its applicability. The possibility of complementary descriptions of the physical phenomena with the help of simultaneous use of the theories of gravitational and electromagnetic fields has been shown. (shrink)

The article discusses the problem of coexistence of different types of rationality, different scientific and linguistic pictures of the world as well as the problem of the adoption by one culture of another culture’s scientific picture of the world with accompanying transformations of the linguistic picture of the world of the recipient culture. The article deals with the experience of mutual research and collision between Western and Chinese traditions, using the example of medical (...) science. The author examines the problem of the transfer of scientific medical knowledge from Western to Chinese culture in the context of a radical mismatch of scientific and linguistic pictures. The articles considers two different approaches to the translation of Western medical terminology into Chinese, developed at different times by English translators Benjamin Hobson and John Fryer. Hobson was focused on harmonizing new terminology with the usual concepts of the world language picture of the recipient. Fryer preferred to introduce new specific terms, artificially created directly for the needs of a new scientific picture of the world. In the field of medical terminology, the first of the two approaches turns out to be more viable, since it is more focused on its “end users” – Chinese doctors who study Western medicine in order to use its methods in their medical practice. Therefore, there is only partial applicability of the approaches, methods and terminology developed in one tradition for the evaluation and development of another tradition. (shrink)

Rethinking “philosophy” to-day, it is necessary to think first of all about ontological foundations of the modern scientific universe description and rethink them on the ground of modern scientific knowledge, because until now there is no any precise scientific conception of the structure of the universe, of reasons and movingforces of its permanent evolution. All of it create basis to propose various unscientific ideas of creationism. Until now most of philosophers associate the motion of Matter on the (...) whole only with its motion in space and in time, mixing philosophical and physical aspects of these two principle categories. Generally speaking, the present-day ontological model of understanding the World, the Universe is constructed purely on the basis of only these two fundamental categories. However, a more deep reflection of the essence of Being, if to realize it on the basis of only these two global categories, brings us to the disappointing conclusion, that in this case we have nothing more except a mechanical motion, i.e. spatial displacement of a material point (or a system of points) relatively some point of counting off. To make it normal and logic we should add to the ontological model one more essential part – the motion in quality. So, in order to create the full and complete picture of the formation and evolution of the material World it is necessary to observe the motion of material forming in the three equivalentphilosophical categories: in space time quality. The ideas of the new conception of ontological model become actual supplementation of really scientific philosophical knowledge on the way of a more objective ontological comprehension of our Being, of the law of development of the human civilization and the Universe as a whole. This knowledge can be successfully used for the description of the realistic paradigm of Being, in explanations of the meaning of Life. (shrink)

The expression “the invisible hand of the market” (from the Adam Smith’s “Wealth of Nations”) sometimes acquires in modern ecomomical and everyday journalism the most unexpected overtones, like “why “the invisible hand of the market» totally disregard writer”? In the area of the scientific economic thinking “the «invisible hand” is interpreted as the objective market mechanism which coordinates the decisions of buyers and sellers. The attempts to analyze the epistemological status of “the invisible hand” are quite rare, especially in (...) the modality of the formation of the Economics as a science. Meanwhile, as it is shown in the article, there is reason to see here the first fundamental step to the origination of the scientific research program of the economic science in the strict sense. The author assumes that phenomena like “the invisible hand of the market” is comparable to what Thomas Kuhn designates as “the metaphysical parts of paradigms”, i. e. basic ontological models, which define peculiar scientific vision of the reality under research. The main difficulty for the scientific rationality in the attempts of generating scientific knowledge about society, was to represent the corresponding processes of human activity in the form of objective reality, which is required by the basic ideological attitude of the science as such. (shrink)

Science has tended in numerous ways to undermine religion — and supernaturalism more generally. This chapter discusses aspects of the relationship between theistic religion and science, noting, in particular, how the success of science contributed to a disenchantment of the cosmos. The chapter provides some historical background about atheism. It explains why traditional demonstrations of God's existence tend to be so unconvincing, especially in the light of modern science. The chapter discusses how science has undermined religion. There are unavoidable tensions (...) between the emerging scientific picture of the world, the universe, and ourselves and traditional religious, and especially Christian, understandings. Deep skepticism about the existence of God seems reasonable to us, and no truly persuasive argument has ever been advanced for the existence of such a strange being. (shrink)

The following is a synopsis of the paper presented by Alvin Plantinga at the RATIO conference on The Meaning of Theism held in April 2005 at the University of Reading. The synopsis has been prepared by the Editor, with the author’s approval, from a handout provided by the author at the conference. The paper reflects on whether religious belief of a traditional Christian kind can be maintained consistently with accepting our modern scientific worldview. Many theologians, and also many scientists, (...) maintain that the idea of divine intervention is at odds with the framework of natural laws disclosed by science. The paper argues that this notion of a ”religion/science problem’ is misguided. When properly understood, neither the classical (Newtonian) picture of natural laws, nor the more recent quantum mechanical picture, rules out divine intervention. There is nothing in science, under either the old or the new picture, that conflicts with, or even calls in to question, special divine action, including miracles. (shrink)

I want to show that a common and plausible interpretation of what science tells us about the fundamental structure of the world – the ‘scientific picture of the world’ or SPW for short – leads to what I’ll call ‘generalized epiphenomenalism’, which is the view that the only features of the world that possess causal efficacy are fundamental physical features. I think that generalized epiphenomenalism follows pretty straightforwardly from the SPW as I’ll present it, but (...) it might seem that, once granted, generalized epiphenomenalism is fairly innocuous, since its threat is too diffuse to provoke traditional worries about the epiphenomenal nature of mental states. If mental states are epiphenomenal only in the same sense that the putative powers of hurricanes, psyche- delic drugs or hydrogen bombs are epiphenomenal, then probably there is not much to worry about in the epiphenomenalism of the mental. I agree that the epiphenomenalism of hurricanes and the like is manageable, but it will turn out that ensuring manageability requires that mental states have an ontological status fundamentally different from that of hurricanes, drugs and bombs, a status that is in fact inconsistent with the SPW. So I’ll argue that generalized epiphenomenalism does have some seriously worrying consequences after all. (shrink)

Steen Brock paints a cross-disciplinary picture of the philosophical and scientific background for the rise of the quantum theory. He accounts for the unity of Kantian metaphysics of Nature, the Helmholtzian principles, and the Hamiltonian methods of modern pre-quantum physics. Brock shows how Planck's vision of a generalization of classical physics implies that the original quantum mechanics of Heisenberg can be regarded as a successful attempt to maintain this modern unity of physics.However, for Niels Bohr, the unity of (...) science and metaphysics did not end in the world of physics. The development of quantum physics had general implications both for other sciences and for various philosophical issues. Brock discusses these matters with respect to recent topics within the philosophy of science and major interpretations of Bohr's ideas. The author invites the reader to follow a long andwinding route of thought which, in the end, culminates in Bohr's ideas of complementarity, culture and Spirit. (shrink)

The article is devoted to the problem of time in modern science, where in recent years there have been major changes related to the latest discoveries in the field of the foundations of quantum theory. The author refers to works of K.-F. von Weizsacker (which works are not well-known in Russian-speaking field). Weizsacker deploys a large-scale program of building modern physics, while starting (not only as a physicist, but also a professional philosopher) with questions of philosophical interpretation of postulates of (...) modern physics, especially quantum mechanics. His key thesis is that time in physics is fundamentally distinct, which represents the whole physics as an integral scientific discipline. Weizsacker comes from physical and philosophical reflections, that give a special value to his work. Analyzing the conclusions of theoretical physics, namely the issues of substantiation of statistical mechanics, thermodynamics, and, above all, quantum mechanics, Weizsacker comes to the key idea of the structure of time in the substantiation of physical theory. The author in this conclusion disagrees with the opinion of most modern physicists that time has a subjective character, and the modus of the past, present and future reflects its essential character. The allocation of the time structure requires special logic. Such a logic is temporal and quantum. Starting from temporal logic, introducing the concept of possibility and probability, he comes to the substantiation of quantum mechanics. Being modal logic, it is based on the concept of possibility and probability. Key concept for Weizsacker is a binary alternative (Uralternative), closely related to the principle of superposition in quantum mechanics. By introducing the concept of certain alternatives, essentially actualized alternatives, Weizsacker shows how one can get the theory of relativity with its space-time structure. Further, he shows that based on its structure, you can get the theory of relativity. The space-time structure in this case is secondary, relational, as understood by Leibniz, Mach, and Einstein. (shrink)

The article examines the current state of the mathematical education of the students-philosophers that depends on language of the humanitarian mathematics, evidence of its statements and methodological problem of the cognition of the mathematical facts. One of important tasks of philosophy of mathematical education consists in motivation of the need for training mathematics of students-philosophers. The main criterion of the usefulness of mathematics for philosophers is revealed in the ways of justification of its truth and completeness of reasoning of mathematical (...) statements. This reflects the attractiveness of mathematical knowledge for philosophers that is characterized by the fact that the truth is revealed along with a proof in mathematics. One of the main so-called ‘acupuncture points‘ of mathematical education of philosophers, as the author believes, is the language of modern mathematics. In General, the linguistic aspect is very important in modern science. The second ‘acupuncture point‘ of mathematical education of philosophers is the level of evidence claims. Third, according to the author, is responsible for knowledge of mathematical truths, is involved in not only our existence, but also transcendental knowledge. In the context of philosophy of the future of modern civilization, mathematics is indispensable as a necessary element of scientific and philosophical picture of the world. To support the conclusions the author draws a broad philosophical and scientific context. (shrink)

Most people believe that everything happens for a reason. Whether it is “God’s will,” “karma” or “fate,” we want to believe that an overarching purpose undergirds everything, that nothing in the world--especially a disaster or tragedy--is a random, meaningless event. This dilemma presents itself provocatively in Charles Darwin’s theory of evolution that, in the conventional scientific understanding, is driven by random chance. Reconciling chance and divine purpose poses challenges to the Judeo-Christian tradition. But the Hebrew Scriptures, in the (...) ancient and powerful story of Job, reveal that questions of purpose and order have long been a part of the conversation. Although the Bible generally affirms that God blesses the righteous in an orderly way, the story of Job is a powerful counterexample to this orderly scheme. The achingly beautiful but tragic story of Job, in concert with the modern quantum picture of the world, push back against the idea that “everything happens for a reason.”. (shrink)

Motivated by the developments in contemporary mathematical physics and the related interpretive and historiographical works on these developments, a structuralist and historically constitutive and constructive approach to scientific realism (SHASR) is proposed to address the challenges Thomas Kuhn raised against scientific realism, and to remove the defects of the currently available dissatisfactory responses the structuralists put forward to the challenges. The paper shows that SHASR productively exploits the insights from both Kuhn’s historicism and his critics’ structuralism, while avoids (...) the traps in both traditions. Then, after a brief comparison between SHASR and the increasingly popular neo-Kantian post-Kuhnian philosophy of science recommended and defended by Michael Freedman and some others, it concludes with a big picture about the science-world relationship derived from the notion of emergence conceptualized within the framework of SHASR, whose bearings on the Kantian question of the phenomenal - noumenal relationship are worth further explorations. (shrink)

The history of scientific illustrations is a story that correspond the cultural, economic, political and scientific history of the world. A look into the history of sciences displays that pictures and illustrations had a decisive role for the sciences progressive success and rising societal status from the sixteenth century. The illustrations visualized the unknown to graspable facts. Without the pictures the new discovered continents, the blood circulatory system and the body’s muscles had remained theoretical proclamations. The (...) class='Hi'>scientific discoveries became visible and communicated, to a wider audience by its illustrations. The scientific illustrations and maps were intertwined with an epistemic ambition to unveil the true natural order. During the seventeenth century the concept of objectivity was interpreted as a quest for revealing nature’s ideal order, a task only feasible for the brilliant artist to accomplish. The epistemic ambition concurred with the belief that only one true ontological order existed that the scientific knowledge had to uncover. This concept of objectivity was succeeded by the modern concept of objectivity which equated objectivity with impartiality and elimination of the scientist’s subjective bias. The view from “nowhere” is still a valid, ruling definition of objectivity. However, the presence and huge expansion of computational pictures in the sciences as well in everyday life raises the question if a new sense of objectivity is framed. In physics and chemistry the produced pictures intend to be contributions to an ongoing theoretical discussion, about a nature in constant flux, let it be molecules or artificially processed materials in the nanoscale. The traveller designs her own map in advance, mixing the Google earth features with the personal arrangements. For both the scientists and the laymen the modernist objective virtues of detachment, impartiality and disinterestedness have been supplemented by a return of subjective involvements. (shrink)

This book, a part of a larger work by the same authors, is concerned with the roots of scientific inquiry which are to be found in Anaxagoras' picture of the world. Application of his method, which they describe as a combination of meticulous observation and logical analysis, to the study of physical change led Anaxagoras to discover the principle of Mind as the unifying factor of all that exists. This principle, together with the description of matter in (...) terms of homeomerous substances, is sufficient for Anaxagoras to provide explanations of all physical events, as is illustrated by the specific theories discussed in the second half of the book. While the book is intended to present conclusions rather than scholarly material, it seems to this reader that the description of Anaxagoras as scientist wholly in terms of an unexamined model of contemporary scientific method does not do him justice, insofar as it neglects to consider what may be important in the differences between his approach and ours.—O. H. (shrink)

: Scientific observation is determined by the human sensory system, which generally relies on instruments that serve as mediators between the world and the senses. Instruments came in the shape of Heron's Dioptra, Levi Ben Gerson's Cross-staff, Egnatio Danti's Torqvetto Astronomico, Tycho's Quadrant, Galileo's Geometric Military Compass, or Kepler's Ecliptic Instrument. At the beginning of the seventeenth century, however, it was unclear how an instrument such as the telescope could be employed to acquire new information and expand knowledge (...) about the world. To exploit the telescope as a device for astronomical observations Galileo had to: 1. establish that telescopic images are not optical defects, imperfections in the eye of the observer, or illusions caused by lenses; 2. develop procedures for systematically handling errors that may occur during observation and measurement and methods of processing data. Galileo made it clear that in order to measure and interpret natural phenomena accurately, a suitable method and instrument would need to be developed. It is intriguing, therefore, to regard the Galilean telescope in this light and to discover the linkage established by Galileo among theory, method, and instrument—the telescope. Although the telescope was not invented through science, it is instructive to see how Galileo used optics to employ a theory-laden instrument for bridging the gulf between picture and scientific language, between drawing and reporting physical facts, and between merely sketching the world and actually describing it. (shrink)

The end of the nineteenth century and the whole of the twentieth may justifiably be called a time of great discoveries in the micro-, macro-, and megaworlds. All bearing witness to the dynamic life of the universe, these discoveries have resulted primarily from progress in the instruments of research, leading to the discovery of many new elementary particles, new forms of interaction, fields, and astrophysical objects — quasars, pulsars, sources of X-ray emissions, and others. An understanding of the essence of (...) the processes involved in these objects and phenomena, however, comes up against certain difficulties , the overcoming of which is to be sought primarily along the lines of further improvement of the tools of research and processing of the information acquired, the application of existing theories and the development of new ones in physics and astrophysics, and the utilization of the achievements of the science of the most general laws of the motion and development of nature, society, and thought, i.e., dialectical materialism, as the general methodology of acquisition of scientific knowledge. (shrink)

The purpose of the study is to reveal the main actions of the major central banks during the COVID - 19 pandemic and their main impact on the world stock markets. The scientific novelty consists in identifying the key results of the impact of the pandemic in general and the restrictive measures of national governments, in particular, on the dynamics of the state of the stock markets of the world, namely, the level of decline in the (...) main stock indexes of the S &P 500, Dow Jones and NASDAQ. The measures taken by the central banks of the United States, Japan, England and other developed and developing countries of the world to provide financial assistance to commercial banks and other financial organizations related to the purchase of government bonds at a "zero" rate, targeting the yield of government bonds, reducing key rates and other measures are summarized. It is indicated that the influx of new private investors provided a great help to the stock market, for which many Central Banks introduced special programs and preferences. As a result, the main measures taken by the Central Bank of the Russian Federation to stabilize the financial situation in the country and the domestic stock market, in particular, are summarized. (shrink)

The causal representative theory of perception dominated theory of knowledge for hundreds of years after it was put on the map by Descartes and Locke. It is now almost extinct. How could this happen? The theory collapsed because it could not explain how we acquire knowledge of the external world, since it presupposes a causally organized system of external objects producing sensations in us. This presupposition, however, is generally recognized as true, so that the pattern of causal inference at (...) the heart of the theory is surely justified. The theory cannot explain how we originally acquire our knowledge of the external world, but it is entitled on a second pass to correct our empirical beliefs, where necessary. This includes replacing our naive picture of the physical world with a more sophisticated scientific conception, which downgrades secondary qualities. This was, indeed, the main reason why it was originally introduced by Descartes and Locke, and has been the source of its attraction over the years. (shrink)

This fascinating study in the sociology of science explores the way scientists conduct, and draw conclusions from, their experiments. The book is organized around three case studies: replication of the TEA-laser, detecting gravitational rotation, and some experiments in the paranormal. "In his superb book, Collins shows why the quest for certainty is disappointed. He shows that standards of replication are, of course, social, and that there is consequently no outside standard, no Archimedean point beyond society from which we can lever (...) the intellects of our fellows. "- -Donald M. McCloskey, Journal of Economic Psychology "Collins is one of the genuine innovators of the sociology of scientific knowledge.... Changing Order is a rich and entertaining book. "- - Isis "The book gives a vivid sense of the contingent nature of research and is generally a good read. "- -Augustine Brannigan, Nature "This provocative book is a review of [Collins's] work, and an attempt to explain how scientists fit experimental results into pictures of the world.... A promising start for new explorations of our image of science, too often presented as infallibly authoritative. "- -Jon Turney, New Scientist. (shrink)

Communication is a crucial component of scientific activity (as of virtually any other domain of human activity, especially in this "communication age" in which we live). As researchers and as citizens, we should all be concerned with the communication of science as well as with communication within science. In this paper, I will deal with one of the key aspects of this topic ג€“ the question whether scientific communication is or should be ג€�transparentג€�. The view that this is (...) or should be the case is often taken for granted both by scientists and the general public. I will challenge this view and suggest that we should learn to live without the illusion that scientific communication is or should be transparent. This idea is closely related, if not derived from, the traditional epistemological conception according to which scientific method is the privileged tool we have for penetrating beyond appearances and discovering the true ג€�nature of thingsג€�, in terms of which all observable phenomena should be ultimately explained. Applying the scientific method should, thus, yield a fully intelligible representation of the world, which in its turn should be transparently communicable. The trouble with this enticing ideal is that it does not correspond to actual practice. Again and again we experience the fact that the ג€�true picture of the worldג€� remains veiled for everyone but a small group of initiated experts in a narrow domain. Is this only a technical problem having to do with the phenomenon of specialization and with the inevitable complexity of the language(s) of science, as it is often suggested? (shrink)

This work has been selected by scholars as being culturally important, and is part of the knowledge base of civilization as we know it. This work was reproduced from the original artifact, and remains as true to the original work as possible. Therefore, you will see the original copyright references, library stamps (as most of these works have been housed in our most important libraries around the world), and other notations in the work.This work is in the public domain (...) in the United States of America, and possibly other nations. Within the United States, you may freely copy and distribute this work, as no entity (individual or corporate) has a copyright on the body of the work.As a reproduction of a historical artifact, this work may contain missing or blurred pages, poor pictures, errant marks, etc. Scholars believe, and we concur, that this work is important enough to be preserved, reproduced, and made generally available to the public. We appreciate your support of the preservation process, and thank you for being an important part of keeping this knowledge alive and relevant. (shrink)

How fixed are the happenings in Nature and how are they fixed? One - very orthodox - account teaches that the sciences offer general truths that we combine with local facts to derive our expectations about what will happen, either naturally or when we build a device to design, be it a laser, a washing machine, an anti-malarial bed net, or an auction for the airwavse. Nancy Cartwright offers a different picture, one in which neither we nor Nature (...) have such nice rules to go by. This volume includes her Paul Carus Lectures plus four additional papers that further develop some of the central ideas. Cartwright offers an original view on the age-old question of scientific realism in which our knowledge is genuine, yet our scientific principles are neither true nor false but are, rather, templates for building good models. (shrink)

A picture has indeed held modern Western philosophy captive, that of the universe as a vast machine whose iron laws are best understood as exceptionless empirical regularities which, as it were, determine the future before it happens. This fantastic conception commands the assent, not just of positivistically-minded naturalists but of all the great anti-naturalists who champion a very different view of human action as a domain of freedom ¿that somehow cheats science¿. The most fundamental move in Roy Bhaskar¿s system (...) of philosophy, the germ of everything that followed, was to reconceptualise the natural world in transcendental realist terms, ¿turning Kant around using his own method¿. On this account, the universe is characterized by deep structures, mechanisms and fields that generate the flux of phenomena, and is in open, creative and emergent process. This completely recasts the terms of the debate between naturalism and anti-naturalism by remedying its false grounds and shows how philosophy can be liberated from its anthropocentric/anthropomorphic prison and rendered consistent with the best insights of modern natural science. There is necessity in nature quite independent of humans, but in an open world causation is multiple and conjunctural, the actual course of the unfolding of being is highly contingent and the bases of human freedom can be understood scientifically. Written as a DPhil thesis when Bhaskar was in his mid-twenties, Empiricism and the Metatheory of the Social Sciences brilliantly launches this reconceptualisation and explores its implications for social science in the course of carrying through the metatheoretical destruction of empiricism. It will be indispensable reading for anyone interested in the development of Bhaskar¿s thought, in transcendental realism, and in the critique of empiricism, more generally of the philosophical discourse of Western modernity. (shrink)

This is a dissertation about moral responsibility, whether we have it in the sense we ordinarily suppose, and what alternatives are available to us given that we lack it. ;The dissertation comes in two main parts. The first part defends a particular kind of error theory about the folk concept of moral responsibility. That is, given a roughly scientific picture of the world, it is likely that our commonsense beliefs about responsible agency are systematically mistaken. The second (...) part of the dissertation develops a strategy for resolving the folk conceptual error theory. I call the general strategy revisionist, and recommend pursuing a particular research program under the title "moderate conceptual revisionism." The central idea is that by eliminating a metaphysically-demanding freedom condition on moral responsibility, we can revise our concept in such a way that it recognizes the limitations of our psychology and respects what is justifiable in our practices, without violating our expectations about the natural world. If successful, what makes this approach moderate is that it preserves the bulk of the beliefs, attitudes, and practices characteristic of responsibility. ;There are two chief advances of the dissertation. First, it provides a diagnosis of the apparent intractability of the current debate between standard philosophical positions. Second, it proposes an approach that provides a way out of that debate by developing a new class of responsibility theories: non-eliminativist folk conceptual error-theories. (shrink)

Why should anybody care about theoretical simplicity? It is pretty clear that simpler theories don't stand a better chance of being true, just because they are simpler than their competitors. Of course, simpler theories are easier to use in technological applications, and they are more tractable. But that is something engineers should be concerned about. Why should the theoretical scientist be interested in simple theories? ;The principal virtue of simple theories is their facilitation of scientific understanding in virtue of (...) their greater explanatory power. Simple theories are more unified, and they allow important kinds of reasoning about the world. If a theory yields a unified but structure-rich picture of the world, and thereby a high degree of understanding, we can design relevant experiments, form rational expectations, and in general are in a better position to gather relevant data than when we confront the world without any understanding whatsoever. Simple theories are therefore, in virtue of increasing our understanding, epistemically advantageous. That's why the theoretical scientist should be interested in simple theories. ;Of course, since the choice of simple theories does not guarantee getting closer to the truth, the claim that such a choice is epistemically advantageous presupposes that we draw a distinction between the explanatory power of theories and their accuracy. This distinction has not received sufficient attention in the existing literature, and that's why it was so difficult to say exactly what the virtue of simple theories is. Recognizing that explanatory power and accuracy are orthogonal aspects of scientific theories allows us to assign simplicity the role of facilitating understanding and thereby guiding controlled experimentation. (shrink)

In this paper, the author considers five basic understandings of metaphysics as a philosophical discipline that 1) studies the most general characteristics of everything that is, 2) investigates beings as beings, 3) considers what goes beyond the framework of experience, 4) analyses the most general terms and 5) provides an explanatory theory. In addition, the author considers a number of relevant ideas and distinctions, the distinction between reality and appearance, the distinction between the apparent and scientific (...) class='Hi'>picture of the world (Wilfrid Sellars), the idea that philosophy is the queen of science (Moritz Schlick), the distinction between descriptive and revisionist metaphysics (Peter Frederick Strawson), the synoptic view, the idea of naturalised metaphysics, etc. The author accepts the first point of view, the one according to which metaphysics is understood as a philosophical discipline that studies the most general characteristics of everything that is, and accordingly believes that categorical ontology best fits into that picture. After that, the author briefly presents the most famous criticisms of metaphysics (David Hume, Immanuel Kant, and logical positivists), as well as the positions that led to the formation of modern metametaphysics (Rudolf Carnap and Willard Van Orman Quine). Finally, the author considers verbalism and trivialism and tries to determine whether these two positions can represent a basis for the elimination of metaphysics. The author tries to show that these positions do not eliminate metaphysics, but rather set the framework for contemporary metaphysical discussions. (shrink)

Why did science emerge in the West and how did scientific values come to be regarded as the yardstick for all other forms of knowledge? Stephen Gaukroger shows just how bitterly the cognitive and cultural standing of science was contested in its early development. Rejecting the traditional picture of secularization, he argues that science in the seventeenth century emerged not in opposition to religion but rather was in many respects driven by it. Moreover, science did not present a (...) unified picture of nature but was an unstable field of different, often locally successful but just as often incompatible, programmes. To complicate matters, much depended on attempts to reshape the persona of the natural philosopher, and distinctive new notions of objectivity and impartiality were imported into natural philosophy, changing its character radically by redefining the qualities of its practitioners.The West's sense of itself, its relation to its past, and its sense of its future, have been profoundly altered since the seventeenth century, as cognitive values generally have gradually come to be shaped around scientific ones. Science has not merely brought a new set of such values to the task of understanding the world and our place in it, but rather has completely transformed the task, redefining the goals of enquiry. This distinctive feature of the development of a scientific culture in the West marks it out from other scientifically productive cultures. In The Emergence of a Scientific Culture, Stephen Gaukroger offers a detailed and comprehensive account of the formative stages of this development---and one which challenges the received wisdom that science was seen to be self-evidently the correct path to knowledge and that the benefits of science were immediately obvious to the disinterested observer. (shrink)

In addition to an exceptional readability, these systematic reflections on the logical and explanatory nature of natural science have as their chief merit the well-executed resolve of their author to locate science as a logically structured and confirmed body of knowledge within the broader context of science as a human activity, involving indispensible personal and intersubjective dimensions. Nash combines this sensitivity with an impressive grasp of the history of modern science, and the book as a whole is sprinkled with uniformly (...) apropos quotations from scientists and philosophers of science. Unfortunately, however, natural science becomes uncritically identified with science as such, i.e., our total systematic, rational picture of the world; and Nash has not marshalled anything near the epistemological resources required to support his version of scientific realism. Consequently, the book provides little for the philosopher of science to get excited about, though it might be useful for cross-disciplinary purposes and would provide a good introduction for the educated layman.—E. A. R. (shrink)

Scholars in the early seventeenth century who studied ancient Greek scientific theories often drew upon philology and history to reconstruct a more general picture of the Greek past. Gassendi's training as a humanist historiographer enabled him to formulate a conception of the history of philosophy in which the rationality of scientific and philosophical inquiry depended on the historical justifications which he developed for his beliefs. Professor Joy examines this conception and analyzes the nature of Gassendi's historical (...) training, especially its relationship to his career as a physicist and astronomer. She shows how he rehabilitated Epicurean atomism by bringing together the arguments of the Greek atomists and those of his contemporaries. In doing so, he produced an account of the natural world which made it an object of empirical study and mechanical explanation. (shrink)

Scientists are portrayed as champions of objectivity and truth, and artists as champions of subjectivity and creative expression. Through analysis of modern art, John C. Gilmour shows how misleading is this separation of the world into objective and subjective spheres. This false dichotomy depends upon a dated philosophy of mind. The issues posed are developed from the ideas of Nietzche, Heidegger, Merleau-Ponty, Gadamer, Ricoeur, Wittgenstein, Rorty, Dewey, and Whitehead. Picturing the World requires us to reconceive the role of (...) the artist in the creative process and the role of the arts in general. (shrink)

У статті оцінюється значення онтологічної та метафізичної проблематики у сучасному філософському дискурсі, критично аналізується концепція монографії Андрія Баумейстера «Буття і благо» та пропонується інтерпретація буття як ствердження реальності в соціально детермінованій дії.

The reception of the heliocentric theory of Nicolaus Copernicus in Jewish thought of the 17th-century period is a good exemplification of the issue concerning the formation of the relationship between natural science and theology, or more broadly: between science and religion. The fundamental question concerning this relationship, which we can ask from today’s perspective of this problem, is: How does it happen that claims of a scientific nature, which are initially considered from a religious point of view to be (...) incompatible with the religious view of the world, are later accepted as possible to agree with this image of reality and are assimilated by a given religion? Based on the reception of the Copernican image of the universe by two representatives of Jewish philosophy in the 17th century—David Gans and Joseph Solomon Delmedigo—it is possible to trace this process and pose the thesis that it takes place according to two strategies. Within the framework of the first one, represented by Gans, in a situation of incompatibility between the scientific and religious images of nature, a scientific theory is sought that explains the observed phenomena and, on the other hand, satisfies the religious claims. Finding such a theory solves the problem of the incompatibility mentioned above of images of the world, gives the theory credibility from the religious point of view and constitutes an argument for its correctness. The second strategy, represented by Delmedigo, consists in refraining from pursuing a direct, immediate, and unequivocal reconciliation of the two images of the world while at the same time recognizing a properly justified scientific theory as correctly describing and explaining the phenomena occurring in nature. Consequently, the apparent incompatibility between the scientific and the religious worldview demands either a reformulation of religious statements in such a way as to remove this incompatibility or the restriction of the meaning of religious statements to the strictly religious and moral sphere, without the ambition to speak about nature. In either case, however, it is already a task for the representatives of the religion concerned who, when confronted with adequately justified scientific claims, to avoid exposing their religion to the accusation that its claims are unreasonable and anachronistic, undertake the task mentioned above of modifying or limiting the scope of their statements. It seems that in the representatives of Jewish thought and Judaism, who are the successors of Gans and Delmedigo, generally speaking, the second strategy has prevailed in this version, in which one abandons the claim of religion to statements about the material world at the price of a significant divergence of the paths of science and religion. Consequently, it treats them as different narratives, describing and explaining two separate spheres of reality. (shrink)

Resumen Este artículo busca demostrar que los argumentos generales acerca de la exploración científica valen también para las ciencias espaciales. El trabajo se basa en el ejemplo de la exploración de Venus y lo que esta nos dice acerca de nuestro propio planeta. Argumenta que el concepto de la probabilidad de Leslie es incorrecto, como también lo son las dudas sobre la evidencia Venusiana. Así mismo, concluye que no se puede rechazar la importancia que tienen los descubrimientos inesperados que han (...) resultado de la exploración de Venus para ayudarnos a comprender nuestro propio planeta. Y que si van a ser rechazados estos descubrimientos debe ser por razones científicas, no por intuiciones acerca de la probabilidad.This article seeks to demonstrate that the general arguments about scientific exploration are also suitable for space sciences. The work is based on the example of the exploration of Venus and what it tells us about our own planet. It argues that Leslie’s concept of probability is incorrect, as are also the doubts on Venusian evidence. Likewise, it concludes that we cannot deny that the unexpected discoveries that have resulted from the exploration of Venus are important to help us understand our own planet. And if these discoveries are going to be rejected, it must be for scientific reasons and not for intuitions about probability. Este artículo busca demostrar que los argumentos generales acerca de la exploración científica valen también para las ciencias espaciales. El trabajo se basa en el ejemplo de la exploración de Venus y lo que esta nos dice acerca de nuestro propio planeta. Argumenta que el concepto de la probabilidad de Leslie es incorrecto, como también lo son las dudas sobre la evidencia Venusiana. Así mismo, concluye que no se puede rechazar la importancia que tienen los descubrimientos inesperados que han resultado de la exploración de Venus para ayudarnos a comprender nuestro propio planeta. Y que si van a ser rechazados estos descubrimientos debe ser por razones científicas, no por intuiciones acerca de la probabilidad. (shrink)

This work has been selected by scholars as being culturally important, and is part of the knowledge base of civilization as we know it. This work was reproduced from the original artifact, and remains as true to the original work as possible. Therefore, you will see the original copyright references, library stamps (as most of these works have been housed in our most important libraries around the world), and other notations in the work. This work is in the public (...) domain in the United States of America, and possibly other nations. Within the United States, you may freely copy and distribute this work, as no entity (individual or corporate) has a copyright on the body of the work.As a reproduction of a historical artifact, this work may contain missing or blurred pages, poor pictures, errant marks, etc. Scholars believe, and we concur, that this work is important enough to be preserved, reproduced, and made generally available to the public. We appreciate your support of the preservation process, and thank you for being an important part of keeping this knowledge alive and relevant. (shrink)

In this book, Andrew Inkpin considers the disclosive function of language—what language does in revealing or disclosing the world. His approach to this question is a phenomenological one, centering on the need to accord with the various experiences speakers can have of language. With this aim in mind, he develops a phenomenological conception of language with important implications for both the philosophy of language and recent work in the embodied-embedded-enactive-extended tradition of cognitive science. -/- Inkpin draws extensively on the (...) work of Martin Heidegger, Maurice Merleau-Ponty, and Ludwig Wittgenstein, showing how their respective conceptions of language can be combined to complement each other within a unified view. From the early Heidegger, Inkpin extracts a basic framework for a phenomenological conception of language, comprising both a general picture of the role of language and a specific model of the function of words. Merleau-Ponty’s views are used to explicate the generic “pointing out”—or presentational—function of linguistic signs in more detail, while the late Wittgenstein is interpreted as providing versatile means to describe their many pragmatic uses. Having developed this unified phenomenological view, Inkpin explores its broader significance. He argues that it goes beyond the conventional realism/idealism opposition, that it challenges standard assumptions in mainstream post-Fregean philosophy of language, and that it makes a significant contribution not only to the philosophical understanding of language but also to 4e cognitive science. (shrink)

Scientists and historians have often presumed that the divide between biochemistry and molecular biology is fundamentally epistemological.100 The historiography of molecular biology as promulgated by Max Delbrück's phage disciples similarly emphasizes inherent differences between the archaic tradition of biochemistry and the approach of phage geneticists, the ur molecular biologists. A historical analysis of the development of both disciplines at Berkeley mitigates against accepting predestined differences, and underscores the similarities between the postwar development of biochemistry and the emergence of molecular biology (...) as a university discipline. Stanley's image of postwar biochemistry, with its focus on viruses as key experimental systems, and its preference for following macromolecular structure over metabolism pathways, traced the outline of molecular biology in 1950.Changes in the postwar political economy of research universities enabled the proliferation of disciplines such as microbiology, biochemistry, biophysics, immunology, and molecular biology in universities rather than in medical schools and agricultural colleges. These disciplines were predominantly concerned with investigating life at the subcellular level-research that during the 1930s had often entailed collaboration with physicists and chemists. The interdisciplinary efforts of the 1930s (many fostered by the Rockefeller Foundation) yielded a host of new tools and reagents that were standardized and mass-produced for laboratories after World War II. This commercial infrastructure enabled “basic” researchers in biochemistry and molecular biology in the 1950s and 1960s to become more independent from physics and chemistry (although they were practicing a physicochemical biology), as well as from the agricultural and medical schools that had previously housed or sponsored such research. In turn, the disciplines increasingly required their practitioners to have specialized graduate training, rather than admitting interlopers from the physical sciences.These general transitions toward greater autonomy for biochemistry and allied disciplines should not mask the important particularities of these developments on each campus. At the University of Caliornia at Berkeley, agriculture had provided, with medicine, significant sponsorship for biochemistry. The proximity of Lawrence and his cyclotrons supported the early development of Berkeley as a center for the biological uses of radioisotopes, particularly in studies of metabolism and photosynthesis. Stanley arrived to establish his department and virus institute before large-scale federal funding of biomedical research was in place, and he courted the state of California for substantial backing by promising both national prominence in the life sciences and virus research pertinent to agriculture and public health. Stanley's venture benefited significantly from the expansion of California's economy after World War II, and his mobilization against viral diseases resonated with the concerns of the Cold War, which fueled the state's rapid growth. The scientific prominence of contemporary developments at Caltech and Stanford invites the historical examination of the significance of postwar biochemistry and molecular biology within the political and cultural economy of the Golden State.In 1950, Stanley presented a persuasive picture of the power of biochemistry to refurbish life science at Berkeley while answering fundamental questions about life and infection. In the words of one Rockefeller Foundation officer,There seems little doubt in [my] mind that as a personality Stanley will be well able to dominate the other personalities on the Berkeley campus and will be able to drive his dream through to completion, which, incidentally, leaves Dr. Hubert [sic] Evans and the whole ineffective Life Sciences building in the somewhat peculiar position of being by-passed by much of the truly modern biochemistry and biophysics research that will be carried out at Berkeley. Furthermore, it seems likely that Dr. S's show will throw Dr. John Lawrence's Biophysics Department strongly in the shade both figuratively and literally, but should make the University of California pre-eminent not only in physics but in biochemistry as well.101Stanley, Sproul, Weaver, and this officer (William Loomis) all testified to a perceptible postwar opportunity to capitalize on public support for biological research that relied on the technologies from physics and chemistry without being captive to them, and that addressed issues of medicine and agriculture without being institutionally subservient. What is striking, given the expectation by many that Stanley would ‘be able to drive his dream through to completion,” was that in fact he did not. Biochemists who had succeeded in making their expertise valued in specialized niches were resistant to giving up their affiliations to joint Stanley's “liberated” organization. Stanley's failure was not simply due to institutional factors: researchers as well as Rockefeller Foundation officers faulted him for his lack of scientific imagination, which made it difficult for him to gain credibility in leading the field. Moreover, many biochemists did not share Stanley's commitment to viruses as the key material for the “new biochemistry.”In the end, Stanley's free-standing department did become a first-rate department of biochemistry, but only after freeing itself from Stanley's leadership and his single-minded devotion to viruses. Nonetheless, the falling-out with the Berkeley biochemists was rapidly followed by the establishment of a Department of Molecular Biology, attesting to the unabating economic and institutional possibilities for an authoritative “general biology” (or two, for that matter) to take hold. In each case, following Stanley's dream sheds light on how the possible and the real shaped the (re)formation of biochemistry and molecular biology as postwar life sciences. (shrink)

In the range of his intellectual interests and the profundity of his mathematical thought Hermann Weyl towered above his contemporaries, many of whom viewed him with awe. This volume, the most ambitious study to date of Weyl's singular contributions to mathematics, physics, and philosophy, looks at the man and his work from a variety of perspectives, though its gaze remains fairly steadily fixed on Weyl the geometer and space‐time theorist. Structurally, the book falls into two parts, described in the (...) class='Hi'>general introduction by the editor: Part 1 contains four essays on particular aspects of Weyl's work, highlighting ideas he developed in various editions of his classic Raum‐Zeit‐Materie. Part 2 presents a lengthy study by Robert Coleman and Herbert Korté covering nearly the whole gamut of Weyl's mathematical research, an impressive feat. Both in the introduction as well as in footnotes to the articles Erhard Scholz's editorial voice chimes in discreetly, helping tie all five studies together.Coleman and Korté begin chronologically with Weyl's early work in analysis and the modern theory of Riemann surfaces before turning to differential geometry, unified field theory, and the space problem, a topic they use as a springboard for a discussion of their own recent work on the foundations of space‐time. They then take up Weyl's shift to group representation theory and its applications to quantum mechanics, ending with his much earlier research on the structure of the continuum. All of these topics are well handled, but the authors' own agendas coupled with their penchant for overlooking chronology in order to package Weyl's work into neat little bundles leave one feeling rather stranded and far removed from the sources of Weyl's inspiration. Moreover, the narrative style makes this part of the volume read like a technical appendix, albeit a most informative one. Readers who tackle Scholz's far more contextualized essay will be amply rewarded by comparing his views with the opinions set forth by Coleman and Korté in Part 2.Scholz gives a masterful account of Weyl's intellectual journeys from 1917 to 1925 in a study that serves as a fulcrum for the entire volume. Drawing on a number of recently published studies, including his own, on the interplay between mathematics and physics inspired by Einstein's theory of general relativity, Scholz describes how Weyl responded to this challenge by developing a truly infinitesimal space‐time geometry that generalized classical Riemannian geometry. Although unconvinced by Einstein's critique of his unified field theory, Weyl shifted his focus from this realm to the classical space problem, analyzed earlier with more primitive techniques by Hermann Helmholtz and Sophus Lie. In this connection, it should be mentioned that Thomas Hawkins has given a probing analysis of Weyl's related work on the representation of Lie groups in his tour‐de‐force work, Emergence of the Theory of Lie Groups . Scholz argues that Weyl's struggle to tame his modernized version of the space problem stemmed from a deep‐seated belief in his geometrical ideas, which in turn were nourished by philosophical musings. By demonstrating the closely related conceptual links that motivated Weyl's research in infinitesimal geometry, space‐time physics, and the foundations of mathematics, Scholz nicely illuminates the underlying fabric of epistemological concerns that occupied Weyl's attention during this fertile period.The three remaining essays in Part 1 focus on other aspects of Weyl's work in mathematical physics and cosmology. Skuli Sigurdsson's “Journeys in Spacetime” offers a broad interpretation of Weyl's career, one that emphasizes Weyl's sensitivity to cultural tensions as reflected in his philosophical roots, which combined phenomenology with facets of German idealism. Shaken by the annihilation of cultural values in Nazi Germany, Weyl became deeply aware of the gulf that separated his earlier life in Göttingen and Zurich from the one he took up at Princeton's Institute for Advanced Study in 1933. He tried to adapt, but felt out of place in an Anglo‐American scientific culture openly hostile toward metaphysics and speculative philosophy. Sigurdsson stresses these tensions, contrasting the introspective, creative individual against the backdrop of the collective in the age of the machine, but without spelling out which collective were most important for him. Wolfgang Pauli thought he knew and, like Einstein before him, he had no compunction about bluntly telling Weyl he was a mathematician, not a physicist.Pauli's opinions notwithstanding, Weyl did far more than just dabble around the mathematical edges of the new physics. If Coleman and Korté perhaps press their case for his visionary accomplishments too far, Norbert Straumann's essay “Ursprünge der Eichtheorien” suggests why Weyl's reputation among physicists has risen steadily ever since the advent of Yang‐Mills theory in the 1950s. In the course of describing Weyl's adaptation of his gauge transformation formalism to Dirac's electron theory, Straumann sheds considerable light on Pauli's role as self‐appointed watchman guarding the disciplinary boundary that separated theoretical physics from physical mathematics . He further suggests that disciplinary jealousy was a major reason why Pauli dismissed Weyl's two‐component formalism for spinors out of hand.In the realm of cosmology, on the other hand, Weyl's work has long since passed into the dustbins of history, as Hubert Goenner remarks in recounting a fascinating chapter in the infancy of space‐time physics. While doing so, Goenner shows how initially Weyl almost slavishly adopted what Einstein called Mach's principle, which asserts that the metric structure of space‐time is solely determined by the distribution of matter in the universe. This notion was quickly challenged by Willem De Sitter, who showed that Einstein's matter‐free field equations admitted a global solution with non‐zero constant curvature. Both Einstein and Weyl tried to argue that invisible masses must be present just over the “spatial horizon” of De Sitter's world in order to account for its curvature. Goenner meticulously analyzes the physical and mathematical issues at stake in this debate, stressing how Weyl gradually moved away from a strong physical interpretation to one in which mathematics models rather than physics models simply reveal natural phenomena. He argues further that Weyl's cosmological principle arose as the final expression of his search for a deeper physical meaning.Given the quality of these essays, it is regrettable that this book contains so little about Weyl's professional career, a weakness the editor could have redressed at least partially in his general introduction. This omission is all the more unfortunate given the dearth of readily accessible information about Weyl's life available elsewhere. For however mundane his outward existence may have been, the reader cannot be expected to appreciate the interplay between the world Weyl knew and his creative responses to it without fairly detailed knowledge of his biography. Shorn from these contexts, it becomes difficult to form a flesh‐and‐blood image of Weyl beyond the cliché‐ridden stereotype that sees him as a “heroic thinker in the grand German tradition.” While none of the authors falls into this trap, the collective impression they leave suggests a most enigmatic figure. Either Weyl the man tends to get lost in the shadows of his collected scientific output or he appears as a mystic loner, an outcast who abhorred the machine age in which he lived. Closer attention to the people in his life would no doubt produce a very different picture of the man and his interests. This major lacuna notwithstanding, the present volume will surely remain an indispensable resource for any future investigations of Weyl's staggering intellectual achievements. (shrink)

The paper investigates the role played by pre-scientific experience in the philosophy of Josiah Royce and Edmund Husserl. Such a notion, generally associated with Husserl’s conception of the life-world (Lebenswelt) in the Crisis of European Sciences and Transcendental Phenomenology (1936), finds an equivalent and historical antecedent in Royce’s distinction between a world of description and a world of appreciation. The final goal is to show how, despite their different philosophical frameworks, Royce and Husserl agree on the (...) idea that, through the rejection of the world given through mere perception (Lebenswelt/world of appreciation), European sciences have somehow failed their task of universality. As it will be shown, this idea is also due to methodological affinities among the two thinkers. The experience of interconnectedness among individual minds, while precluded in the mere scientific explanation of the world, it becomes possible through the enactment of the Lebenswelt or, as in Royce’s case, through a return to the experience of the world of appreciation. (shrink)

Modern trends in social development are defined not only as an information society, but increasingly as a knowledge society. To understand its content and strategy of implementation, an important aspect is to understand the contradictions that are increasingly manifested and are of a general socioanthropological nature. In particular, this is the problem of the correlation between a knowledge society and objective scientific knowledge; this is the question of the correlation between the available knowledge and experience reflected in the (...) cultural tradition and the rapidly changing information flow; this is the question of the social role of education and the social status of an educated person, as well as the problem of human self-determination in the context of situational relations and a configurative society, etc.The widespread mythologeme of a knowledge society as a society of intellectuals supports a rather one-sided view of it. Therefore, understanding the paradoxical combination of elements of a knowledge society system, their contradictions, and complementarities, makes it possible to understand the risks and develop tools to avoid them. The research methodology. The study is based on an interdisciplinary and comprehensive analysis of contemporary socio-cultural processes in the context of the formation of a knowledge society and information pedagogy. Research results: The interpretation of modern society as a knowledge society raises a number of theoretical questions and discussions concerning the definition of knowledge (scientific/non-scientific, useful/unsuitable, etc.), and the definition of its social and anthropological characteristics and human status (educated person, informed person, professional person, successful person). The challenges of the processes of informatization of society lead to the formation of «e-didactics» and «information pedagogy» of a new educational paradigm, the effectiveness of which should resolve a number of contradictions. These include, in particular, the discrepancy between learning tools (openness and mobility) and reproductive learning models; between distance asynchronous learning and the classical stability of the structure and forms of organization of the educational process, etc. Discussions. The analysis of knowledge as the fundamental basis of the new social reality and changes in its historical status allows us to identify problematic issues of the worldview picture of the world that is formed in the conditions of intensive production of information and a certain devaluation of knowledge, actualization of innovations, and devaluation of cultural tradition. The knowledge society is often characterized as an education society. Although such a generalization is debatable, educational technologies of knowledge production and transmission are an important component of the development of a knowledge society and include the destruction of stereotypes and attitudes of the industrial society’s education paradigm. This explains why interdisciplinary discussions about the content and forms of organization of modern education are becoming increasingly acute. The problem of rethinking the established models of teacherstudent relations and the requirements for the subjects of the educational process is important among the many aspects of changes. A student is transformed from an object of pedagogical influence into a subject of the educational process, where a teacher plays the role of a mentor, a tutor, since knowledge must be «extracted» by a student because of his or her own intellectual efforts and cognitive search.The change in social role also includes a change in worldview, way of thinking, and value priorities. Conclusion. The analysis of the socio-cultural mechanisms and practices of the knowledge society reveals its ambivalence and risks, which are its inherent characteristics. Knowledge as the fundamental basis of the new social reality is defined not only as a tool for understanding the world but also as a factor of civilizational development that produces new forms of activity and relationships, new worldview orientations, and value priorities. The transformation of the phenomenon of knowledge and the rapidity of the information flow raises the question of the relevance of existing knowledge and experience to the needs of a given situation, thus actualizing the demand not for the depth of knowledge and understanding, but for the ability to combine and choose a practical (useful) option, to put together puzzles and mosaics, forming a clip thinking. Challenges of the processes of society informatization lead to the formation of “e-didactics”, information pedagogy as a tool for adaptation and a new educational paradigm, the effectiveness of which should resolve the identified contradictions.However, the transformation of modern educational practices involves not only rethinking their content, technologies, and teaching methods, changing the status relations of the subjects of the educational process, but also a general change in models of thinking and personal behavior, and a change in the human world. The correlation of the modes of human definition: educated, intellectual, erudite, and specialist becomes an important issue of the anthropological dimension of the knowledge society, where the problem of human self-determination is becoming more acute. (shrink)

I have only begun to sketch out some of the differences between the work of Harold Garfinkel and Alfred Schutz. As the work of ethnomethodology accumulates and as other commentators begin to explore their similarities and differences, a clearer picture will, I am certain, emerge. For now, I shall only conclude with the following brief summary.As Natanson (1966, p. 152) has noted, “for Schutz, mundane existence is structured by the typifications of man in the natural standpoint. Common sense is (...) then an achievement rather than something simply given.” The main issues with which Schutz was concerned were how to investigate social reality and comprehend it (Natanson, 1966): …in terms which do not violate its character. How is warranted knowledge possible of the experiential world defined by the natural standpoint? The answer Schutz offers is by way of a reconstruction of the typifications of mundane life, but the underlying theme he is exploring is the intentional nature of consciousness in its abstractive and ideational modalities. Typification as such, rather than types and constructs, is the underlying concern. By tracing out the phenomenological genesis of typification from its prepredicative grounds to its self-conscious activity in generalization, he has provided an approach to an epistemology of the social world. [p. 154]Garfinkel, on the other hand, seeks to trace out the genesis of the perception, interpretation, and accomplishment of social occasions and their settings by members of society as they live and operate within the natural attitude in the world of everyday life. Their activities are taken without question as whatever social reality is for them. The processes whereby they accomplish these activities so as to make them recognizable become his main concern and it is the discovery and reconstruction of these processes, under the ethnomethodological reduction, of which his findings consist. By describing the methods used by members, he provides an approach to the methodology of the social world, that is, an ethno or members' methodology, for the construction, interpretation, and recognition of the social world. (shrink)

How do scientists and theologians conceive new ways of mapping the world? Can parallels be found between the images they use, or the models they offer when new questions arise? I will explore Albert Einstein’s views on scientific imagination with the goal of contributing – at least within his own perspective – to answering these questions. Drawing on McGrath, I will first briefly describe Einstein’s desire for a unified vision of reality, the links between science and a ‘cosmic (...) religion’, and his overall ideas on transcendence. I will later further develop Einstein’s fundamental features of a cosmovision that grounds his work in physics, and encompasses his philosophical views on human existence and his general way of seeing the world. I will focus on Ideas and Opinions (1982), which will allow me to set the broad picture of his theory of everything and, at the same time, bring up the central aspects of Einstein’s ideas on the scientific imagination. Finally, I will briefly summarise my conclusions concerning Einstein’s views on the nature of scientific imagination as a mental device, especially regarding its twofold role in what I call ‘visual image play’ and conceptualization. (shrink)

Scientists often make use of epistemic representations in order to perform investigations about the real world. So far, philosophers of science interested in epistemic representation of this sort have mostly focused on scientific models. In this thesis, I argue that there are other interesting instances of representation besides models: thought experiments, experimental organisms, and mechanically-produced pictures. These represent portions of the world in the same way as models do, if the concept of epistemic representation is properly understood. (...) In Chapter 1, I introduce and develop the idea that a system functions as an epistemic representation of a designated target system insofar as it is interpreted as a symbol that both possesses and highlights some properties that are then to be imputed to that target system via a proper de-idealising function. In the main body of the thesis, I analyse the above-mentioned types of representations and argue that they function as representations in the same way as scientific models. Chapter 2 discusses the use of thought experiments in physics, with particular focus on Galileo’s thought experiment that illustrates the principle of inertia. Chapter 3 focuses on experimental organism research in biology, with specific attention to the Drosophila melanogaster. Finally, Chapter 4 is about the epistemic use of mechanically produced pictures with the picture of a black hole as the primary case study. In each chapter, I further show that by studying these types of representation through the lens of the account developed in Chapter 1, one can (dis)solve specific issues about thought experiments, model organisms, and pictures respectively. In Chapter 5, I further defend my proposal from scepticism about the concept of representation and its application to these different cases. Chapter 6 concludes the thesis by illustrating the most general implications of my analysis and proposing routes for future enquiry. (shrink)

Philip Kitcher is one of the most distinguished philosophers of our days. Since the rise of philosophy of biology in the 1960s Kitcher has deeply influenced and inspired many of the debates in this field. Among his most important books are The Advancement of Science (1993), In Mendel’s Mirror: Philosophical Reflections on Biology (2003), and Science in a Democratic Society (2011). However, Kitcher’s philosophical interest is not restricted to the philosophy of science. Rather, he has also made groundbreaking contributions to (...) ethics, to the philosophy of religion, to the philosophy of literature, to the philoso-phy of mathematics, and, most recently, to pragmatism. From a general perspective, two features of Kitcher’s work are particu-larly noteworthy. First, in most of his writings it becomes apparent that he takes a naturalistic stance. Kitcher characterizes himself as having an “impulse to naturalism”, which means that he resists the expansionist tendency to invoke entities or processes that are quite different from those studied in the various branches of inquiry (like Platonic forms or other abstract entities, Cartesian egos, and faculties of pure reason). Kitcher has explicated his naturalistic stance in The Naturalists Return (1992) and refined it in various recent works. Second, the philosophical questions that always have urged Kitcher most are questions that matter to human lives. Just to mention a few examples, these are questions like “How do we reconcile our scientific picture of the world with religion?”, “In which way does social practice impact scientist’s search for knowledge?”, or “How do we understand and improve our moral practices?”. In recent years Kitcher has argued that his focus is not merely due to his personal interests. Rather, he thinks that the only philosophical problems that are significant are those whose solution makes a difference to contemporary human life. Philosophers would be wise to focus on these pragmatically relevant kinds of questions, rather than addressing questions that are isolated from real life. In defending this claim, Kitcher expresses his affinity to the pragmatist tradition of Dewey and others. Thus, the second major characteristic of Kitcher’s work is that he takes up a pragmatist stance. Although Kitcher’s naturalistic and pragmatist impulses are discernible in most of his writings, he has only lately started to explicitly defend what he now calls pragmatic naturalism. His work on pragmatic naturalism contains innovative insights into questions about naturalism and pragmatism, while at the same time providing a meta-philosophical, unificatory framework for his longstanding work in various philosophical fields. Kitcher’s paper that is printed in this volume is one of the first publications in which he sets out his idea of pragmatic naturalism. This volume is the result of the 15th Münster Lectures in Philosophy which were hosted by the Department of Philosophy of the University of Münster from the 27th to the 29th of October 2011. The basic idea of the Lectures is to give advanced students of the Department the opportunity to get into discus-sion with important philosophers of our days. In line with what has become by now a venerable tradition, Kitcher gave a lecture to a public audience on the first evening of the Lectures, and he participated in a colloquium on the following two days. At this colloquium, eight groups of advanced students and faculty members presented papers on a wide range of topics from Kitch-er’s work. Both the lecture and the papers are published in this volume. In addition, it contains Kitcher’s detailed replies to the colloquium papers. (shrink)

The work of Hesiod, an ancient Greek epic poet, is considered, in particular, his poem “Theogony”, as one of the first cosmogonic constructions in European culture. Particular attention is drawn to the image and concept of Chaos – the initial state of the world, which also has a creative, creative essence. The primary instances that appear together with Chaos – Gaia, Tartarus and Eros also act as elements of the basic ontological model. The attitude of the ancient philosophical tradition (...) to the concept of Chaos, which was problematized even by the pre-Socratics and compared with the famous Orphic cosmologies, is analyzed. In this sense, the image of Chaos in Hesiod can be considered as the first principle of building the world by analogy with the search for arché in later philosophers, as well as in its abstract, idealized form – the initial theoretical model of being and the beginning of ancient ontology. Of particular interest in this sense is Chaos, a rather complex and mysterious reality that is primary in relation to others and, moreover, is itself a creative force. The problem can be formulated as follows: can Chaos in Hesiod’s poem be considered a mythological-poetic ontology, an analogue and prerequisite of the philosophical concept of being, or even a certain essence of the world, its eternal integral part. The task of the study is to describe a general approach to understanding Chaos in Hesiod’s poem as an ontological essential first principle, which serves as a prototype of the philosophical ontology of later philosophers. Chaos can be interpreted as the original state of being and as a reference system for all world coordinates and the ideal beginning of the world. The original, initial state of the world, as well as the origin of the latter, is a cross-cutting theme of ancient Greek philosophy and science. Already in the early theogony, in the Orphics and in Hesiod, we find a certain mythological-poetic and, at the same time, religious-philosophical model of the origin of the world and its first elements. It would be too bold to consider these rather fantastic images and constructions as a real philosophical or scientific theory, which already in the understanding of the ancient Greeks should have had clearly defined principles and a consistent logical structure. Nevertheless, already in the first attempts to describe the structure of the universe we see an attempt to find the beginning from which a kind of ontological intuition of ancient Greek philosophy begins and which will later lead to the emergence of the main philosophical schools. Moreover, this intuition allowed us to pose a question that is still the basis of ontological problems. Even a preliminary consideration of the historical-philosophical material demonstrates the possibility of various interpretations of the ontological constructions of early ancient cosmogonies. The vision of Chaos in Hesiod proposed here is the first step towards a hermeneutic reconstruction of the primary foundations of ancient Greek philosophy and its mythological and poetic origins. (shrink)