Quantum probability is used to provide a new organization of basic quantum theory in a logical, axiomatic way. The principal thesis is that there is one fundamental time evolution equation in quantum theory, and this is given by a new version of Born’s Rule, which now includes both consecutive and conditional probability as it must, since science is based on correlations. A major modification of one of the standard axioms of quantum theory allows the implementation of various (...) mathematically distinct models (commonly called ‘pictures’) of them. A natural definition of isomorphism of models is presented next. For a given Hamiltonian the standard ‘pictures’ of quantum theory (e.g., Schrödinger, Heisenberg, interaction) are isomorphic models, whose probabilities are nonetheless model independent. The Schrödinger equation remains valid in one model of the axioms, even though it is no longer the fundamental equation of time evolution. All the usual calculations of standard, textbook quantum theory remain valid, but they are put in a new light. For example, the ‘collapse’ of the state is now viewed in the Schrödinger model as _one_ step in a _two_ step algorithm for calculating _one_ conditional probability. In the isomorphic Heisenberg model, where states are constant in time, one has the same conditional probability given by the same formula. Also, entanglement is defined in a new, more general model independent way as an aspect of quantum probability without using ‘collapse’ or tensor products. (shrink)

Certain principle aspects of the fundamental science state in Ukraine as of 2014 were analyzed. It was shown that no awareness exists in the country that the main although not unique task of the science consists in the creation of new knowledge. The special attention was paid to state academies of science, in particular, to the National academy of science of Ukraine. It was demonstrated that the active law concerning science as well as the (...) project of the new law have substantial shortcomings from the judiciary viewpoint and inhibit a free progress of science in line with general trends of the developed countries. The existing status of the autonomous state academies, being a peculiar symbiosis the non-governmental organization and state institution, was criticized. The concept of a scientific elite was analyzed, which was used to determine its true level. Certain scientometric data on the Ukrainian science were presented. A very unsatisfactory situation with social sciences and humanities was shown. Criteria were discussed for the future audit of the Ukrainian science in order to reform it in the European style. (shrink)

Among the various institutional structures of an economy like the firm and the marketplace is one that is like no other. Science is unique. This uniqueness raises an important question: why does science exist? From an economic perspective, there are two potentially meaningful approaches to the existence of science. They both encompass institutional pluralism. A substitutes theory of comparative institutions presupposes the primacy of the commercial marketplace over firms—that firms substitute for the market when markets fail. This (...) theory has not been used to explain the existence of science. A complements theory postulates that many simultaneous institutional responses, including science, are necessary for creating an efficient and equitable economy. The economic function of science is to produce fundamental theoretical abstractions about our world. Scientific theories are public goods that would not likely be produced within the governance structures of commercial markets and firms. The aim is to complement but not supplant traditional philosophical answers that science exists to discover truth and knowledge. (shrink)

Critically growing problems of fundamental science organisation and content are analysed with examples from physics and emerging interdisciplinary fields. Their origin is specified and new science structure (organisation and content) is proposed as a unified solution.

We explain why exactly the simplified abstract scheme of reality within the standard science paradigm cannot provide the consistent picture of “truly fundamental” reality and how the unreduced, causally complete description of the latter is regained within the extended, provably complete solution to arbitrary interaction problem and the ensuing concept of universal dynamic complexity. We emphasize the practical importance of this extension for both particular problem solution and further, now basically unlimited fundamental science development (otherwise dangerously (...) stagnating within its traditional paradigm). (shrink)

Existence of state-supported academies of science is a distinctive feature of the fundamental-science organization in Ukraine. Their research staff is divided into two groups: (i) personal members (academicians and corresponding members) and the rest of the researchers. First-group members have numerous economic and status privileges. It is officially purported that personal members are scientifically qualified than their colleagues. We analyzed this hypothesis on the basis of international indicators of the scientifi c activity (numbers of publications in (...) the international peer-reviewed journals and citations in them). The indicators testify that there are no distinctions between representatives of both groups being of the same age and qualifi cation. A conclusion is made that the lifelong privileges of the first group are ill-founded. (shrink)

The ArgumentContemporary natural sciences succeed remarkably well in ensuring a relatively continuous transmission of their cognitively relevant traditions and in creating a widely shared background consensus among their practitioners – hermeneutical ends seemingly achieved without hermeneutical awareness or explicitly acquired hermeneutical skills.It is a historically specific – emerging only in the nineteenth century – cultural organization of the Author-Text-Reader relation which endows them with such an ease of hermeneutical achievements: an institutionally fixed form of textual and intertextual practices, normatively (...) posited ways of adequate reception and criticism, etc. The same organization also explains a number of their often-discussed epistemic and cultural characteristics: their depersonalized objectivity, the social closure of their discourse and their reduced cultural significance, the shallow historical depth of their activated traditions, etc.The cognitive structure and the social function of contemporary natural sciences are intimately interwoven with a set of sui generis cultural relations that are partially fixed in the textual characteristics of their literary objectivations. A comparative hermeneutical analysis of natural sciences as a specifically constituted and institutionalized cultural genre or discourse-type brings into relief those contingent cultural conditions and relations to which some of their fundamental epistemological characteristics are bound, or at least with which they are historically closely associated. (shrink)

The interesting and deep commentaries on our target article reflect the continued high interest in the problem of colour categorisation and naming. Clearly, colour remains for many cognitive science related disciplines a fascinating microworld in which some of the most fundamental issues for cognition and culture can be studied. Although our target article took the stance of practically oriented engineers who are trying to find the best solution for orchestrating the self-organisation of communication systems in artificial agents, most (...) commentators focus on the implications for cognitive science and we will do the same in our reply. (shrink)

Possibly the most fundamental scientific problem is the origin of time and causality. The inherent difficulty is that all scientific theories of origins and evolution consider the existence of time and causality as given. We tackle this problem by starting from the concept of self-organization, which is seen as the spontaneous emergence of order out of primordial chaos. Self-organization can be explained by the selective retention of invariant or consistent variations, implying a breaking of the initial symmetry (...) exhibited by randomness. In the case of time, we start from a random graph connecting primitive “events”. Selection on the basis of consistency eliminates cyclic parts of the graph, so that transitive closure can transform it into a partial order relation of precedence. Causality is assumed to be carried by causal “agents” which undergo a more traditional variation and selection, giving rise to causal laws that are partly contingent, partly necessary. (shrink)

The idea of levels of organization plays a central role in the philosophy of the life sciences. In this article, I first examine the explanatory goals that have motivated accounts of levels of organization. I then show that the most state-of-the-art and scientifically plausible account of levels of organization, the account of levels of mechanism proposed by Bechtel and Craver, is fundamentally problematic. Finally, I argue that the explanatory goals can be reached by adopting a deflationary approach, (...) where levels of organization give way to more well-defined and fundamental notions, such as scale and composition. (shrink)

In lieu of an abstract, here is a brief excerpt of the content:Notes and Discussions ARISTOTLE'S "DE MOTU ANIMALIUM" AND THE SEPARABILITY OF THE SCIENCES In contrast to Plato's vision of a unified science of reality and with a profound effect on subsequent natural science and philosophy, Aristotle urges in the Posterior Analytics and elsewhere that scientific knowledge is to be pursued in limited, separable domains, each with its own true and necessary first principles for the explanation of (...) a discrete range of phenomena, that is, accepted observations and beliefs, from which its investigations are launched (An. Pr. 46al7ff.; An. Post. 74b25, 76a26-3 o, 84b14-18, 88a31; Cael. 3o6a6ff.; Gen. An. 748a7ff.). In an early introduction to a course of lectures on the natural sciences, Aristotle also indicates the order in which those sciences ought to be presented (Mete. 338a2o-~9, 339a5-9; cf. Cael. 268al6, Part. An. 644b~2ff.). The plan is to start with a general discussion of change and motion, then progress to studies of specific natural phenomena, ending with the many species of plants and animals. In the theory of demonstration in Posterior Analytics 1, which is concerned with the organization, justification, and teaching of a finished science, Aristotle maintains that terms cannot ordinarily cross genera; for example, geometry cannot provide demonstrations of truths of arithmetic or aesthetics. Demonstration of a theorem of some one science by means of another can be accomplished when and only when the sciences are related as "subordinate " to "superior" (75b14-17), for example, as harmonics to arithmetic or optics to geometry. A superior science may supply the "reason" for a "fact" known to obtain in the subordinate science (78b34-79a6). Evidently at least part of what he has in mind is the relation between pure and applied sciences.' Aristotle's practice as well as a number of methodological remarks ' See ThomasAquinas,In Post. An. 50.1,15.131, 50.1.25,as wellasJ. Barnes'snoteson An. Post. 78b34,in Aristotle'sPosteriorAnalytics (Oxford:OxfordUniversityPress,1975).For relevant background see Ian Mueller,"Ascendingto Problems:Astronomyand Harmonicsin Republic VII," inJohn Anton,ed., Scienceand the Sciencesin Plato (Albany:StateUniversityof NewYork Press, 1979). [65] 66 HISTORY OF PHILOSOPHY suggest also that the strictures of the Posterior Analytics are not intended to prohibit the heuristic use of material from other disciplines in research (see e.g., Top. 1.14; Part An. 639b17ff., 641a6-14, 642alo-14, 645b15-2o; Ph. 192b8-34, 199a8-21, 199a33-b5). The requirements for science laid down here are very strict, and it is sometimes maintained that Aristotle violates them himself to some degree in other works, but it is not usually believed that he ever denies the separability of the sciences in general. Martha C. Nussbaum has recently presented a lively challenge to this concensus? She argues that Aristotle's late, little known work De Motu Animalium represents a radical but "deliberate and fruitful" rejection of his earlier philosophy of science as enunciated in the Organon and not seriously questioned in other, subsequent writings. Her claim is that in his mature thought about the sciences Aristotle arrives at a significantly "less departmental and more flexible picture of scientific study" (p. 113) and comes to hold that "no inquiry is genuinely separable from a whole group of interlocking studies, and no being can be extensively studied without an account of its placement in the whole of nature" (p. 164). Nussbaum's conclusion is probably not intended to be as Platonic as it may appear at first blush, for she seems actually to be speaking only of connections between sciences of different substances. There is no suggestion that the study of beauty or health or geometry, say, is on a par with the sciences of substances. Nor does she suggest that Aristotle wavers in his conviction that there are fundamental cleavages between the practical and theoretical sciences, which will make a full-blown science of ethics-politics look very different from the demonstrative science of meteorology, for example. Nevertheless, even if limited to the natural sciences of substances, her claim remains an important and interesting one. She holds, more specifically, that Aristotle departs from his earlier position as follows: (1) He recognizes that the biological study of various modes of local motion... (shrink)

Against Nature – Chapter Abstracts Chapter 1. A Transdisciplinary Approach. In this short book you will find philosophy – metaphysical and political - economics, critical theory, complexity theory, ecology, sociology, journalism, and much else besides, along with the signposts and reference texts of the Information Systems field. Such transdisciplinarity is a challenge for both author and reader. Such books are often problematic: sections that are just old hat to one audience are by contrast completely new and difficult to another. My (...) hope is that in the interconnections, arguments and thrust of this polemic, readers will discover both interest and insight, alongside a range of new avenues to explore. This introductory chapter sets the scene – today’s digital world of Tech Giants and Fake News, its roots in the philosophical arguments of the 1920s, and the book’s key claims: (i) that the early 20th century philosophical grounding of today’s digital revolution is culpable in digital’s (growing) contribution to the ecological catastrophe unfolding in the 21st century; (ii) that process philosophy offers a new way to rethink that philosophical grounding, and reshape the digital revolution to support strategies to counter that catastrophe. Chapter 2. The Problem with Digital. This chapter begins with a brief overview of the research approaches in information systems as an academic field, before turning to the deeper roots of its malaise, in individualism, and its looming consequences. The three branches of Information Systems research, in academia, prove to be a useful lens through which to understand the field: Positivism, Interpretivism, and the Critical stance taken by this book. The ‘scientism’ at the root of positivism is examined, and the positivism in Information Systems critiqued as a historically contingent response to the ascendancy of a new brand of economics in Business Schools after the Second World War. But the computational market-fundamentalist form of economics sponsored in the 1950s (and applied by governments since the 1970s) centred around notions of the individual rational actor as an information processor. The philosophical underpinning of methodological and possessive individualism in this approach is exposed, and its influence upon the development – long before computing – of the science of ecology, and our notion of ecosystems, introduced. Chapter 3. The Future Does Not Exist. The philosophical core of the book, this chapter introduces process philosophy. Through an examination of the irreversible reality of subjectivity, Bergson’s famous notion of the durée reélle, and Whitehead’s critique of the bifurcation of subject and object, are introduced. The causally closed ‘time’ of positive science determines existence from the beginning to the end of the universe, be it three seconds or three trillion years. But the reality, of course, is that the future does not exist: our choices are real, and only one of myriad potential futures comes into being at each moment. As Bergson insists, durational succession exists, I am conscious of it; it is a fact. Bergson’s star – once the brightest of any living philosopher in the world – faded almost as quickly as it rose, under the onslaught from the logical positivists whose verificationism insisted that any proposition has no factual meaning if no evidence of observation can count for or against it: all ethics, aesthetics, romance, and metaphysics – and the very subjectivity with which duration is experienced - were thus closed down and dismissed. In this chapter it is reintroduced, to a new audience. Chapter 4. The World in a New Light. Many fundamental problems in the world can be seen as resulting from the false philosophy of bifurcation, fixity, and the reification of abstractions critiqued by process philosophy. Being – with all the isolation and focus upon the individual that it entails – must, if we are to address these problems, be seen as secondary to Becoming, with all the connection, interrelatedness, and complex collectivity that it implies. Choices become clearer, between positivism and interpretivism, between accents upon individualism or collectivism, between reductionist and complex adaptive systems approaches. The systemic individualism in Anglo-American societies can be regarded as actually harmful: the Tech Giants severing ties and bonds rather than connecting us; algebraic ecological models actually breaking the co-dependencies and co-requisites upon which real – complex - ecological health depends. Positivism, built as it is upon methodological individualism, seen in the light of process philosophy, becomes a danger to personal psychological balance – cutting us off from one another; a danger to the social fabric – undermining and impoverishing our civic life; and a danger to the ecological health of the planet – ignoring the immense (eco)systemic impact of our activities over the last centuries upon everything around us in the natural world. Chapter 5. A Theoretical Manifesto for Green IT. We are not islands, and in a process-relational social organisation much must be held in common. We are individuals, but we cannot survive alone. Four different perspectives on individualism show it to be little more than greed. An ecological economics reintegrating the household, the social, the supportive State, and – crucially – the life-giving earth into our polities is introduced and promoted. I introduce the concept of ‘Infomateriality’ – a non-bifurcated digital world where the physical bodies of people - fingers touching keyboards and eyes scanning screens - are as much ‘hardware’ as cabling, circuitboards and haptic interfaces, and the social practices, power relations, and embedded politics within IT artefacts define all such techné as fundamentally social. Abstract divisions are false, and whole, socially embedded systems should be the focus of IS, and from a philosophically and sociologically much deeper perspective. ‘Tech for Good’ is held up as movement in the right direction. My hope is that this book will help promote action, in the field of information systems, toward a better world, where Green Tech for Good is deployed for Nature, rather than against it. (shrink)

I argue for the centrality of the concepts of biophysical and human nature in science-and-religion studies, consider five different metaphors, or “visions,” of nature, and explore possibilities and challenges in reconciling them. These visions include (a) evolutionary nature, built on the powerful explanatory framework of evolutionary theory; (b) emergent nature, arising from recent research in complex systems and self-organization; (c) malleable nature, indicating both the recombinant potential of biotechnology and the postmodern challenge to a fixed ontology; (d) nature (...) as sacred, a diffuse popular concept fundamental to cultural analysis; and (e) nature as culture, an admission of epistemological constructivism. These multiple visions suggest the famous story of the blind men and the elephant, in which each man made the classic mistake of part-whole substitution in believing that what he grasped (the tail, for example) represented the elephant as a whole. Indeed, given the inescapability of metaphor, we may have to admit that the ultimate truth about the “elephant” (nature, or the reality toward which science and religion point) is a mystery, and the best we can hope for is to confess the limitations of any particular vision. (shrink)

This article analyses the relationship between the Belgian government and the national Nuclear Research Centre (SCK CEN) in the renegotiation of the mission and organization of Big Science in Belgium. While the founding decades of nuclear laboratories are often characterized by ever-increasing budgets and the establishment of large infrastructure, I show that downsizing or transforming Big Science demanded a new form of politics on the organization of science. Drawing on archival material, this article will demonstrate (...) how the mission and management of SCK CEN were critically followed by a variety of stakeholders. Furthermore, the Belgian government explicitly aimed to allow corporate principles to guide the reorganization of the research centre by hiring consultants from Arthur Andersen. This episode in the history of nuclear research invites historians of science to reflect upon both the politics of Big Science in an era in which its original principles were fundamentally questioned and the historical development of new norms and expectations attached to this phenomenon. (shrink)

As the pluralization in the title of MITECS suggests, and as many reviewers have noted, the stance that we adopted as general editors for this project was ecumenical. We were particularly concerned to generate a volume whose range of topics and perspectives indicated that “cognitive science” was different things to different groups of researchers, and that many even fundamental questions remain open after at least four decades of various interdisciplinary ventures. Implicit in this view is a wariness of (...) any putative magic key to understanding the complexities of cognition in all of its diversity, and the hope that by providing a forum in which this range of work could be reviewed by anyone with time and inclination, the field as a whole would be better positioned to reflect on its future directions. Readers of the preceding reviews might be interested in a few words about the development of the project. Contracted in the early summer of 1995, MITECS began as a volume projected at half of its eventual size, but with roughly the same scope it has in published form. The general editors, Frank Keil and myself, had been thinking about a volume of this sort independently over the preceding year or so, and so much of the structure of the volume was already outlined by mid-1995. Thus, we were able to move relatively quickly in the second half of 1995 to assemble a team of 9 advisory editors for the six sections that constitute the organization of the volume; as reviewers have noted, the presence of these sections in the print version is manifest primarily by the six overview essays that occupy the first 100 or so pages in MITECS. (shrink)

This paper investigates Hegel’s account of the animal organism as it is presented in the Philosophy of Nature, with a special focus on its normative implications. I argue that the notion of “organisation” is fundamental to Hegel’s theory of animal normativity. The paper starts by showing how a Hegelian approach takes up the scientific image of organism and assigns a basic explanatory role to the notion of “organisation” in its understanding living beings. Moving from this premise, the paper turns (...) to the group of accounts in contemporary theoretical biology known as “organisational accounts”, which offer a widely debated strategy for naturalizing teleology and normativity in organisms. As recent scholarship recognizes, these accounts explicitly rely on insights from Kant and Post-Kantianism. I make the historical and conceptual argument that Hegel’s view of the organism shares several basic commitments with OAs, especially regarding the notion of “organisational closure”. I assess the account of normativity that such accounts advance and its implications for how we approach Hegel. Finally, I argue that the notion of “organisation” is more fundamental to Hegel’s theory of animal normativity than the Aristotelian notion of “Gattung” or “species”, which by contrast appears derivative – at least in the Philosophy of Nature and the Lectures – and does not play the central role in his account maintained by some scholars. (shrink)

This study challenges the conventional boundaries of philosophy by asserting that organizations can function as legitimate subjects within philosophical discourse. Western philosophy, epitomized by Descartes, has long assumed that individual human beings are the fundamental units of thought and moral agency. However, in a significant oversight, this belief overlooks the idea that organizations can think independently, leading to both virtuous and malevolent results. Epistemology lacks a clear prioritization of morally sound knowledge over potentially harmful knowledge. The advent of artificial (...) intelligence (AI) has also transformed the landscape of cognition from a primarily individual human endeavor into a joint undertaking where humans collaborate with AI entities in collective thinking and decision-making. Nevertheless, AI lacks the innate ability to discern between ethical and unethical actions. This symbiosis creates organizations as fundamental philosophical subjects, marking a significant shift in philosophical emphasis where the organization takes the center stage. Accordingly, within this emerging field, we advance four propositions as the core subjects of organization philosophy: organizations can think, organizations can create knowledge, AI can be part of an organization, and humans in the organization control moral discipline. These propositions guide the ethical coexistence of AI and human agents in organizations, emphasizing the importance of ethical deliberation in knowledge use. Moreover, the malicious use of profound knowledge hinders human progress, as illustrated in this study by an ethical examination of military institutions within organization philosophy. (shrink)

The development of new theory is often spurred by novel techniques that provide better answers to existing questions, or that allow asking new ones. In the field of strategy and organization science, models of complex adaptive systems have renewed theoretical work on a fundamental question: how organizations can adapt effectively to their environments. This article has three objectives: to highlight some areas where models of organizations as complex adaptive systems have made substantial contributions: the search for solutions (...) to sets of interdependent choices, the challenge of balancing processes of exploration and exploitation, and the organization of imperfect decision makers; to point to several challenges and tradeoffs which can limit the explanatory power and eventual impact of the modeling enterprise; and to sketch out possible future directions of research that would do further justice to the notion of organizations as complex adaptive systems. (shrink)

The conceptual history of the term “organization” begins in Medieval times with the reception and transformation of Aristotle’s philosophy of life. It designates the corporeal structure and conditions of identity of natural “organic bodies,” a term that had been used to refer to living beings since antiquity. The term played an important role in specifying the ontological status of living beings. At the same time, it offered a basis for their mechanistic understanding. Starting with mechanistic models of life in (...) the second half of the seventeenth century, “organization” and “life” were increasingly used interchangeably. This conjunction of meaning transformed “living beings” into “organisms.” Within physiological accounts of the eighteenth century, the living organization was compared to a causal cycle of interdependency. Philosophically, this conjunction was adapted at the end of the century in Kant’s philosophy of “organized beings of nature” in which he located the idea of causal cyclicity within a teleological framework and specified an “organized being” in causal terms as a system of interacting and interdependent parts characterized by functional closure. Thus, “organization” refers to the constitution of living beings as a particular kind of causal system. In the nineteenth century, the term achieves the status of a signal word for the life sciences and starts being applied in a wide variety of contexts, from comparative anatomy to physiology and ecology. It was supplemented by two other fundamental notions, namely, “regulation” and “evolution,” the first referring to the stabilization and the second to the long-term transformation of natural organizations. The twentieth century saw a further intensification of the complementarity of the perspectives associated with these three terms. Finally, in recent years, a substantial improvement in understanding the causal structure of “organization” was achieved by analyzing it in terms of the “closure of constraints.”. (shrink)

To understand the mind, we need to draw equally on the fields of cognitive science and neuroscience. But these two fields have very separate intellectual roots, and very different styles. So how can these two be reconciled in order to develop a full understanding of the mind and brain.This is the focus of this landmark new book.

Talk of linguistic universals has given cognitive scientists the impression that languages are all built to a common pattern. In fact, there are vanishingly few universals of language in the direct sense that all languages exhibit them. Instead, diversity can be found at almost every level of linguistic organization. This fundamentally changes the object of enquiry from a cognitive science perspective. This target article summarizes decades of cross-linguistic work by typologists and descriptive linguists, showing just how few and (...) unprofound the universal characteristics of language are, once we honestly confront the diversity offered to us by the world's 6,000 to 8,000 languages. After surveying the various uses of “universal,” we illustrate the ways languages vary radically in sound, meaning, and syntactic organization, and then we examine in more detail the core grammatical machinery of recursion, constituency, and grammatical relations. Although there are significant recurrent patterns in organization, these are better explained as stable engineering solutions satisfying multiple design constraints, reflecting both cultural-historical factors and the constraints of human cognition.Linguistic diversity then becomes the crucial datum for cognitive science: we are the only species with a communication system that is fundamentally variable at all levels. Recognizing the true extent of structural diversity in human language opens up exciting new research directions for cognitive scientists, offering thousands of different natural experiments given by different languages, with new opportunities for dialogue with biological paradigms concerned with change and diversity, and confronting us with the extraordinary plasticity of the highest human skills. (shrink)

Economists’ conceptions about the “nature of the economic agent” are central to understanding their economic thinking, the phenomena that deserve their attention, the way they build models and theories—as well as the scope and relevance of those theories. Moreover, according to the “psychological” traits of the agent, the subsequent economic theory can accommodate (or not) certain economic phenomena. These claims certainly apply to Brian J. Loasby’s economics. The objective of this article is to survey and analyse Loasby’s reconstruction of economics (...) based on the revision of the psychological foundations of economic agent. We show the influence that George A. Kelly, Adam Smith, Alfred Marshall, Friedrich Hayek and Herbert Simon (among others) play in his work. According to Loasby, concepts such as uncertainty, motivation, imagination, and connecting principles, are central to explaining the growth and organization of knowledge, complexity, and the evolution of economic systems. (shrink)

This study, presenting a history of the measurement of light intensity from its first hesitant emergence to its gradual definition as a scientific subject, explores two major themes. The first concerns the adoption by the evolving physics and engineering communities of quantitative measures of light intensity around the turn of the twentieth century. The mathematisation of light measurement was a contentious process that hinged on finding an acceptable relationship between the mutable response of the human eye and the more easily (...) stabilised, but less encompassing, techniques of physical measurement. -/- A second theme is the exploration of light measurement as an example of ‘peripheral science’. Among the characteristics of such a science, I identify the lack of a coherent research tradition and the persistent partitioning of the subject between disparate groups of practitioners. Light measurement straddled the conventional categories of ‘science’ and ‘technology’, and was influenced by such distinct factors as utilitarian requirements, technological innovation, human perception and bureaucratisation. Peripheral fields such as this, which may be typical of much of modern science and technology, have hitherto received little attention from historians. -/- These themes are pursued with reference to the social and technological factors which were combined inextricably in the development of the subject. The intensity of light gained only sporadic attention until the late nineteenth century. Measured for the utilitarian needs of the gas lighting industry from the second half of the century, light intensity was appropriated by members of the nascent electric lighting industry, too, in their search for a standard of illumination. By the turn of the century the ‘illuminating engineering movement’ was becoming an organised, if eclectic, community which promoted research into and standards for the measurement of light intensity. -/- The twentieth-century development of the subject was moulded by organisation and institutionalisation. Between 1900 and 1920, the new national and industrial laboratories in Britain, America and Germany were crucial in stabilising the subject. In the inter-war period, committees and international commissions sought to standardise light measurement and to promote research. Such government- and industry-supported delegations, rather than academic institutions, were primarily responsible for the ‘construction’ of the subject. Practitioners increasingly came to interpret the three topics of photometry (visible light measurement), colorimetry (the measurement of colour) and radiometry (the measurement of invisible radiations) as aspects of a broader study, and enthusiastically applied them to industrial and scientific problems. -/- From the 1920s, the long-established visual methods of observation were increasingly replaced by physical means of light measurement, a process initially contingent on scientific fashion more than demonstrated superiority. New photoelectric techniques for measuring light intensity engendered new commercial instruments, a trend which accelerated in the following decade when photometric measurement was applied with limited success to a range of industrial problems. Seeds sowed in the 1920s – namely commercialisation and industrial application, the transition from visual to ‘physical’ methods, and the search for fundamental limitations in light measurement – gave the subject substantially the form it was to retain over the next half-century. (shrink)

Philosophy of science is showing an increasing interest in the social aspects and the social organisation of science—the ways social values and social interactions and structures play a role in the creation of knowledge and the ways this role should be taken into account in the organisation of science and science policy. My thesis explores a number of issues related to this theme. I argue that a prominent approach to the social organisation of science—Philip Kitcher’s (...) well-ordered science—runs into a number of problems. They undermine its philosophical plausibility and practical usefulness. I agree with Kitcher that arguments about the social organisation of science should recognise profound societal consequences of science. Kitcher argues that the appropriate organisation of science should therefore take into account laypersons’ values and needs when making decisions concerning research planning, evaluation and application. My criticisms show that this is not enough. Drawing on Helen Longino ideas, I argue that laypersons’ perspectives and knowledge may also be relevant when doing research. In order to show how more inclusive research practices may be possible, I discuss connections between philosophy of science and some developments in science policy, which has also recently shown considerable interest in democratic participation. I demonstrate how public participation experiments in science policy may sometimes be close enough to what the philosopher would recommend. Their analysis can thus be helpful for understanding how societal developments may provide opportunities for the involvement of laypersons in science and what factors may endanger its success. I conclude that a way to pursue a more socially relevant philosophy of science is to focus on the points of contact and possibilities of cooperation between philosophical proposals and these public participation initiatives. (shrink)

Marxist social scientists have argued that the relationship between social and technical change is one of mutual interaction; innovation in the modes of production affects social organization, and social organization, in turn, has an impact on the development of novel modes of production. This consideration is of fundamental importance for the construction of any economic development policy. However, analyses of this critical relationship have been elaborated within a conceptual framework which most social scientists and policy makers who (...) work within the framework of neoclassical economic thought find difficult to understand. When marxists argue that technical innovations are the product of a class conflict, non-marxist social scientists are left wondering about what the exact meaning of such a statement. Because marxists have been unable to communicate their message, their important insights into the relation between social and technical change have not been incorporated in contemporary development policy; this situation has often resulted in great social costs. In the past fifteen years, however, Yujiro Hayami and Vernon Ruttan have attempted to analyze the critical interaction of social and technical change using neo-classical economic concepts. I argue that their approach can be utilized to express marxist insights in a language accessible to non-marxist social scientists. The careful and critical adoption of this approach could provide the grounds for a more fruitful dialogue about the interaction of social and technical change, and aid the construction of a new development policy. (shrink)

Stuart Kauffman here presents a brilliant new paradigm for evolutionary biology, one that extends the basic concepts of Darwinian evolution to accommodate recent findings and perspectives from the fields of biology, physics, chemistry and mathematics. The book drives to the heart of the exciting debate on the origins of life and maintenance of order in complex biological systems. It focuses on the concept of self-organization: the spontaneous emergence of order widely observed throughout nature. Kauffman here argues that self-organization (...) plays an important role in the emergence of life itself and may play as fundamental a role in shaping life's subsequent evolution as does the Darwinian process of natural selection. Yet until now no systematic effort has been made to incorporate the concept of self-organization into evolutionary theory. The construction requirements which permit complex systems to adapt remain poorly understood, as is the extent to which selection itself can yield systems able to adapt more successfully. This book explores these themes. It shows how complex systems, contrary to expectations, can spontaneously exhibit stunning degrees of order, and how this order, in turn, is essential for understanding the emergence and development of life on Earth. Topics include the new biotechnology of applied molecular evolution, with its important implications for developing new drugs and vaccines; the balance between order and chaos observed in many naturally occurring systems; new insights concerning the predictive power of statistical mechanics in biology; and other major issues. Indeed, the approaches investigated here may prove to be the new center around which biologicalscience itself will evolve. The work is written for all those interested in the cutting edge of research in the life sciences. (shrink)

In this article I address the introduction of anatomy in books on the soul that were produced in sixteenth-century Germany and the Low Countries, by authors such as Philip Melanchthon,...

The principle of self-organization has acquired a fundamental significance in the newly emerging field of computational philosophy. Self-organizing systems have been described in various domains in science and philosophy including physics, neuroscience, biology and medicine, ecology, and sociology. While system architecture and their general purpose may depend on domain-specific concepts and definitions, there are (at least) seven key properties of self-organization clearly identified in brain systems: 1) modular connectivity, 2) unsupervised learning, 3) adaptive ability, 4) functional (...) resiliency, 5) functional plasticity, 6) from-local-to-global functional organization, and 7) dynamic system growth. These are defined here in the light of insight from neurobiology, cognitive neuroscience and Adaptive Resonance Theory (ART), and physics to show that self-organization achieves stability and functional plasticity while minimizing structural system complexity. A specific example informed by empirical research is discussed to illustrate how modularity, adaptive learning, and dynamic network growth enable stable yet plastic somatosensory representation for human grip force control. Implications for the design of “strong” artificial intelligence in robotics are brought forward. (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 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. Scholars believe, and we concur, that this work is important enough to be (...) preserved, reproduced, and made generally available to the public. To ensure a quality reading experience, this work has been proofread and republished using a format that seamlessly blends the original graphical elements with text in an easy-to-read typeface. 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 the aftermath of the Second World War, effective handling of scientific information was identified as crucial for advancement and international competitiveness. Here, we study how the Soviet Union, through the founding of _The All-Union Institute for Scientific and Technical Information_ (VINITI), developed its own grandiose system which served researchers and engineers throughout the USSR. By studying its inception, the way it was structured, and how it relates to similar grand visions of how to organise knowledge, we provide rare insights (...) into a partly alternative history of how scientific information was organised in the latter half of the 20 th century. Based on available sources in English and Russian, we consider the ideas behind this grand initiative for acquiring international literature, as well as how it was received and presented to a foreign audience. In this effort, we put particular emphasis on the first 25 years of VINITI (1952–1977) while at the same time focusing on central ideas in its organisation such as “enrichment”, “abstracting” and “pre-printing”. A key principle emerging from our analysis is how the notion of concentration becomes a fundamental principle for its operations. Overall, the activities of VINITI can today appear as both old-fashioned, bordering on the utopian, and as visionary and modern in its abandonment of journals and traditional forms of peer review. (shrink)

In lieu of an abstract, here is a brief excerpt of the content:Philosophy, Psychiatry, & Psychology 12.4 (2005) 335-342 [Access article in PDF] Psychoanalysis as a Hybrid of Religion and Science Quinton Deeley Keywords Freud, psychoanalysis, religion, science, evolution Introduction De Block's paper, "Freud as an Evolutionary Psychiatrist," discusses Freud's writ-ings—including a recently discovered paper on the evolution of psychopathology—to establish the Freudian "philosophy of man" that human beings are "ill to the core" (i.e., that mental illness is (...) an inevitable byproduct of human psychological processes). This perspective is then used as a basis for proposing a way in which psychoanalysis can be integrated with contemporary evolutionary psychology. However, this undertaking raises fundamental questions about psychoanalysis itself, which are addressed in this commentary. First, to what extent is a systematic theoretical unity imposed on, rather than discovered in, Freud's writings? Also, has De Block succeeded in grounding the Freudian philosophy of man in evolutionary theory, and how is this ambition affected by general questions about the scientific status and evidence for psychoanalytic conceptions? Further, if there is only limited experimental evidence for psychoanalytic concepts, how are claims to knowledge justified in psychoanalytic discourse, and how does this relate to the forms of epistemic justification found in religion and science? Finally, is psychoanalysis closer to religious or scientific discourse, and if it combines features of both, what kind of activity is it? The Exposition of the Freudian Philosophical Project The key claim of De Block's paper is that any evolutionary psychology faithful to Freud's account of human nature must be constrained by a fundamental premise: the psychological organization of human beings is such that "there is a quantitative, but not a structural, difference between psychiatric patients and so-called healthy or normal individuals" (2005, 323). From De Block's perspective, this reflects the Freudian perspective that the normal operation of psychological processes inevitably results in some degree of mental distress: "every repression produces symptoms, every defense mechanism produces more suffering than is strictly necessary" (2005, 321). As a result, "when Freud writes that there is only a gradual difference between neurotics and normals, he does not mean the normals are non-neurotic, but only that they suffer less under their neurosis" (2005, 318). This Freudian perspective is variously summarized throughout the paper; for example, "we think there is only one underlying motive of Freud's research, which [End Page 335] could also function as a cornerstone of a 'Freudian' philosophy. This underlying motive is the intuition that there is no substantial difference between the so-called normal human being and the mentally insane" (2005, 315).De Block's exposition of the Freudian account of human nature also emphasizes the doctrine of psychosexuality: "the Freudian philosophy of man presumes primarily that every human being has to react in some way of another to sexual problems" (2005, 317). One of the problems confronting any expositor of Freud is the fact that his voluminous writings show considerable development in his thought. This heterogeneity raises the question of the extent to which the coherence of Freudian theory as a systematic whole is imposed by expositors, rather than lying in the corpus itself. De Block's approach to this heterogeneity is to extract different kinds of relations between sexuality and psychopathology from Freud's writings (e.g., neurosis and the Oedipal instincts, psychosis and narcissism), and then to argue that they explain Freud's interest in less obviously sexual aspects of mind, behavior, and society. As De Block comments after his exegesis of different connections between sexuality and psychopathology: but probably, he [Freud] only meant that in neurosis, people wrestle first and foremost with love, in perversion with sex and violence, and in psychosis with identity and issues related to identity, such as death and "the meaning of life." At least, such an interpretation can explain why Freud—in some of his works—recognized the importance of problems like aggression, love, and death for the human psyche and human psychopathology...; he nevertheless refused to modify the primacy of sexuality in psychopathology. (2005, X) Whether all of Freud's explanations of psychological phenomena involve... (shrink)

An emerging class of theories concerning the functional structure of the brain takes the reuse of neural circuitry for various cognitive purposes to be a central organizational principle. According to these theories, it is quite common for neural circuits established for one purpose to be exapted (exploited, recycled, redeployed) during evolution or normal development, and be put to different uses, often without losing their original functions. Neural reuse theories thus differ from the usual understanding of the role of neural plasticity (...) (which is, after all, a kind of reuse) in brain organization along the following lines: According to neural reuse, circuits can continue to acquire new uses after an initial or original function is established; the acquisition of new uses need not involve unusual circumstances such as injury or loss of established function; and the acquisition of a new use need not involve (much) local change to circuit structure (e.g., it might involve only the establishment of functional connections to new neural partners). Thus, neural reuse theories offer a distinct perspective on several topics of general interest, such as: the evolution and development of the brain, including (for instance) the evolutionary-developmental pathway supporting primate tool use and human language; the degree of modularity in brain organization; the degree of localization of cognitive function; and the cortical parcellation problem and the prospects (and proper methods to employ) for function to structure mapping. The idea also has some practical implications in the areas of rehabilitative medicine and machine interface design. (shrink)

B a c k g r o u n d. This scientific investigation conducts a constructive-critical, comprehensive, and systematic analysis of the state, paradigms, and trends in the development of Ukrainian and European fundamental science. It highlights, at a synthetic level, the epistemological and social functions, historical mission, and vision of domestic science in shaping the traditions and values of European culture. The article draws attention to the significant contributions made by domestic scientists to the research of (...) theoretical-methodological, epistemological, and worldview foundations of Ukrainian fundamental science as an intellectual phenomenon. This topic is covered in extensive monographic works, articles, discourses, and scientific investigations by such scientists as B. Paton, A. Zahorodnii, A. Naumovets, D. Zerbino, O. Habovych, V. Kuznietsov, L. Kurylo, N. Semenova, S. Honcharenko, A. Pavko, Z. Partiko, A. Filipenko, and others. Valuable, little-studied, and debatable aspects of this issue have also been highlighted in the works of foreign scientists. Among them, the author of the article includes interdisciplinary publications by J. Barroso, J. Gorgon, V. Humboldt, K. Popper, and other Western thinkers and researchers. At the same time, there are practically no professional generalizing works in domestic socio-humanitarian thought that consider Ukrainian fundamental science from a comprehensive, synthetic perspective as a powerful intellectual factor in shaping the traditions and values of European culture. M e t h o d s. The article uses a set of methods (analysis, synthesis, inductive and deductive methods) as well as general scientific approaches such as dialectical, systematic, and interdisciplinary methods to study this socio-humanitarian problem. This has led to the revelation of the internal contradictory nature of trends in the development of fundamental science, the evaluation of Ukrainian science in the system of European values and culture. Meanwhile, the dialectical method provides the theoretical and methodological foundation for a deep, essential understanding of the intellectual potential of fundamental research. In contrast, the systematic approach used in the article is extrapolated to conduct a correct, comprehensive analysis of the integral components that determine the regularities and features of the development of domestic science in modern conditions. The interdisciplinary approach, creatively applied in the article, made it possible to combine achievements in the field of social humanities, which significantly determine the determinants of the methodological culture of scientific analysis, critical thinking in the process of producing and assimilating scientific knowledge. R e s u l t s. The article identifies the following trends in the development of Ukrainian fundamental science as an institutional factor in shaping the traditions and values of European culture: Powerful, systematic development of fundamental science is a necessary condition for improving the mechanisms of deepening European integration processes in Ukraine. Modern fundamental science is one of the components of the socio-cultural progress of humanity and defines such important characteristics as the differentiation and integration of science, computerization, and humanization of each of them. The historical experience of the development of European civilization shows that science, both in the past and in the present, has been and remains an important intellectual factor, a reliable rational foundation of strong states and nations. C o n c l u s i o n s. The conclusion establishes that the scientific potential of the state is an integral component of European culture and the intellect of the modern Ukrainian nation. It is important to consider that European values should have a profound and irreversible nature for domestic science rather than a temporary one. The preservation and modernization of national intellect, intellectual capital are essential conditions for its integration into the educational, scientific, and cultural space of Europe, and for the preservation and development of Ukraine as a modern, scientifically powerful democratic state with established civilizational traditions. The article emphasizes that the constant pursuit of intellectual and political freedom, patriotism, tireless industriousness, intelligence, education, creativity, intellect, healthy pragmatism, persistence, courage, ingenuity, and a sense of humor are precisely the universal, distinctly defined, characteristic traits of our compatriots that make them resilient and open up a unique intellectual space in Europe, a wonderful European world of existence. (shrink)

A series of decisions covering agriculture as well as industrial and regional policy fundamentally affect the very own interests of the dependently employed. For some years, the trade unions of all European countries have been on the defensive, undergoing a legitimation crisis. The improvement of the social charter and of the rights of the European Parliament are not sufficient to overcome this crisis and to secure a human, social, ecological and democratic future. For this reason, the order of the day (...) must not only be a socially and ecologically compatible design for technology, but a socially and ecologically oriented one. There is certainly an enormous quantity of accompanying research within the European Community, but it is doubtful in how far this research takes into account the requirements of the majority of the population. (shrink)

The political ideology of neoliberalism is widely recognized as having influenced the organization of national and global economies and public policies since the 1970s. In this article, we examine the relationship between the neoliberal variant of globalization and science. To do so, we develop a framework for sociology of science that emphasizes closer ties among political sociology, the sociology of social movements, and economic and organizational sociology and that draws attention to patterns of increasing and uneven industrial (...) influence amid several countervailing processes. Specifically, we explore three fundamental changes since the 1970s: the advent of the knowledge economy and the increasing interchange between academic and industrial research and development signified by academic capitalism and asymmetric convergence; the increasing prominence of science-based regulation of technology in global trade liberalization, marked by the heightened role of international organizations and the convergence of scientism and neoliberalism; and the epistemic modernization of the relationship between scientists and publics, represented by the proliferation of new institutions of deliberation, participation, activism, enterprise, and social movement mobilization. (shrink)

The relentless informational variability in the field of natural sciences, today's need for the training of highly competent, versatile, apologetic future specialists, as well as the low motivation of psychology students to teach natural disciplines, was established by us in the process of their questioning, require the search for new, non-standard solutions in the organization of natural science training of future psychologists in institutions of higher education. We believe that one of the effective ways to solve this problem (...) is the organization of the educational process with the natural scientific training of future psychologists in higher education institutions based on innovation and heuristic. To organize the educational process from the natural science training of future psychologists on the basis of innovation and eurestiality, there is a need to determine such ultra-innovation pedagogical technologies and teaching methods that will meet the requirements of the time, contribute to the formation of psychology students' motivation to study natural sciences and improve the quality and the effectiveness of natural science training. We have characterized pedagogical technologies, namely: coworking technology, barcamp technology, workshop technology, SMART technology, BYOD technology and such innovative methods as: lecture-visualization, video lecture, debates, round table, electronic brain assault, a laboratory experiment and a design-role-playing game, which, in our opinion, will contribute to the implementation of the educational process with the natural science training of future psychologists in higher education institutions based on innovation and heuristic. (shrink)

Contemporary semantic description of logic is based on the ontology of all possible interpretations, an insufficiently clear metaphysical concept. In this article, logic is described as the internal organization of language. Logical concepts -- logical constants, logical truths, and logical consequence -- are defined using the internal syntactic and semantic structure of language. For a first-order language, it has been shown that its logical constants are connectives and a certain type of quantifiers for which the universal and existential quantifiers (...) form a functionally complete set of quantifiers. Neither equality nor cardinal quantifiers belong to the logical constants of a first-order language. (shrink)

The organisational activity of Gottfried Wilhelm Leibniz fits squarely with the transformations in science and research that took place in the seventeenth-century Europe with the inspiration of the model presented by Francis Bacon in New Atlantis (Bacon 1626). This paper is an attempt to assess Leibniz’s efforts aimed at building a new enlightened society within the structures of the Holy Roman Empire of the German Nation. The philosopher’s reformatory projects also had an internationalist dimension for Leibniz saw science (...) as an area free of any political or societal boundaries. Leibniz’s activity in this field should be analysed not only in the context of social and civilisational changes taking place in Europe in the late seventeenth and the early eighteenth century but also take into account a wide spectrum of the philosopher’s research activities and his numerous contributions to diverse fields of knowledge, the value and significance of which could only be appreciated by later generations. (shrink)

Biodiversity is a term easily applied in different and differing contexts. At first glance it seems to be a biological concept, defined and used in the realm of biological theory, serving for the description of particular aspects of the human and non-human environment. In this sense biodiversity even found its way into the texts of international conventions: “Biological diversity means the variability among living organisms from all sources including, inter alia, terrestrial, marine and other aquatic systems and the ecological complexes (...) of which they are part; this includes diversity within species, between species and of ecosystem.” [Harper and Hawksworth (1995)] But despite this clear and distinct definition, the intension of the term BD seems to be ambiguous. This is true for the single aspects of the definition itself, for example, the discussion over “what is a species?” took place in biology during the last 200 years and it is far from being finished [Claridge et al. (1997) Species]. This discussion asks not only for the “correct” biological definition of the term, but at the same time the methodological status of this term is in question. The result of this situation can be seen in the existence of at least 10–20 different definitions, considering biological as well as methodological aspects [Bachmann (1998) Theor Biosci 117:213–230]. Setting aside the fundamental scientific problems even the application of the term, its parametrisation and finally its relevance for biological theory-building is subject matter of controversies. The same is true for further particles of the definition, e.g. the term “ecosystem”, “complexity”, “gen”, “organisms”, etc. The intensity of the debate contrasts in a peculiar way to the reaction of (non-evolutionary) biologists, insofar as the biological research seems to be untouched by the irritating results of the debate itself. Referring to this strange situation, the aim of our article is a reconsideration of the term “biodiversity”. From an epistemological point of view it can be shown that a definition of biodiversity is possible which does not refer to biological knowledge and know-how—at least in its very first steps. Biodiversity then turns out to be a metaphor for specific aspects of societal organisation, the structuration and reproduction of nature-society relations within societies, and not for biological facts at all. (shrink)

The philosophical foundations of the theory of molecular self-organization (TMS) are reconstructed and compared with the explicit methodological statements made by occasions by its author(s). Special attention is paid to those philosophical fundamentals of TMS which can turn out helpful in answering the question evoking vivid discussions in the philosophy of nature of the recent decades: whether it is possible to search for a physico-chemical explanation of the genesis of life and at the same time defend its specific character. (...) In other words: do the latest findings in self-organization of prebiological molecules allow to overcome the traditional disjunction “either physics or evolution” and to replace it with the conjunction “physics and evolution”? (shrink)

Computational neuroscience is the theoretical study of the brain to uncover the principles and mechanisms that guide the development, organization, information processing, and mental functions of the nervous system. Fundamentals of Computational Neuroscience is the first introductory book to this topic. It introduces the theoretical foundations of neuroscience with a focus on understanding information processing in the brain. The book is aimed at those within the brain and cognitive sciences, from graduate level and upwards.

The ability of the Society of Jesus to engage in a broad and enduring tradition of scientific activity is here addressed in terms of its programmatic commitment to the consolidation and extension of the Catholic confession and its mastery of the administrative apparatus necessary to operate long-distance networks. The Society's early move into two major apostolates, one in education and the other in the overseas missions, brought Jesuits into regular contact with the educated elites of Europe and at the same (...) time placed the Society's missionaries in remote parts of the natural world. The modes of organization of travel and communication required by the Society's long-distance networks not only facilitated scientific communication and collaboration within the order, it also provided Jesuits with the resources they needed to engage successfully in 'ministries among the learned'. Evidence of a sustained attempt by Jesuit authors to assume the role of Kulturträger is found in the several genres of scientific publications that dominate the Society's scientific corpus. Thus the Society's early recognition of the "apostolic value" of scientific publications in recruiting friends and allies among Europe's intellectual elites, I argue, allowed a robust interest in natural knowledge to emerge as a legitimate part of the Jesuit vocation. (shrink)

ArgumentScientific uncertainty is fundamental to the management of contemporary global risks. In 2009, the World Health Organization declared the start of the H1N1 Influenza Pandemic. This declaration signified the risk posed by the spread of the H1N1 virus, and in turn precipitated a range of actions by global public health actors. This article analyzes the WHO's public representation of risk and examines the centrality of scientific uncertainty in the case of H1N1. It argues that the WHO's risk narrative (...) reflected the context of scientific uncertainty in which it was working. The WHO argued that it was attempting to remain faithful to the scientific evidence, and the uncertain nature of the threat. However, as a result, the WHO's public risk narrative was neither consistent nor socially robust, leading to the eventual contestation of the WHO's position by other global public health actors, most notably the Council of Europe. This illustrates both the significance of scientific uncertainty in the investigation of risk, and the difficulty for risk managing institutions in effectively acting in the face of this uncertainty. (shrink)

At least since Kuhn’s Structure, philosophers have studied the influence of social factors in science’s pursuit of truth and knowledge. More recently, formal models and computer simulations have allowed philosophers of science and social epistemologists to dig deeper into the detailed dynamics of scientific research and experimentation, and to develop very seemingly realistic models of the social organization of science. These models purport to be predictive of the optimal allocations of factors, such as diversity of methods (...) used in science, size of groups, and communication channels among researchers. In this paper we argue that the current research faces an empirical challenge. The challenge is to connect simulation models with data. We present possible scenarios about how the challenge may unfold. (shrink)

Recent scholarship in science, technology, and society has emphasized the neoliberal character of science today. This article draws on the history of US science and technology policy to argue against thinking of recent changes in science as fundamentally neoliberal, and for thinking of them instead as reflecting a process of “economization.” The policies that changed the organization of science in the United States included some that intervened in markets and others that expanded their reach, (...) and were promoted by some groups who were skeptical of free markets and others who embraced them. In both cases, however, new policies reflected growing political concern with “the economy” and related abstractions and a new understanding of S&T as inputs into a larger economic system that government could manipulate through policy. Understanding trends in US S&T policy as resulting from economization, not just neoliberalism, has implications for thinking about the present and likely future of science and S&T policy. (shrink)

Systems Biology and the Modern Synthesis are recent versions of two classical biological paradigms that are known as structuralism and functionalism, or internalism and externalism. According to functionalism (or externalism), living matter is a fundamentally passive entity that owes its organization to external forces (functions that shape organs) or to an external organizing agent (natural selection). Structuralism (or internalism), is the view that living matter is an intrinsically active entity that is capable of organizing itself from within, with purely (...) internal processes that are based on mathematical principles and physical laws. At the molecular level, the basic mechanism of the Modern Synthesis is molecular copying, the process that leads in the short run to heredity and in the long run to natural selection. The basic mechanism of Systems Biology, instead, is self-assembly, the process by which many supramolecular structures are formed by the spontaneous aggregation of their components. In addition to molecular copying and self-assembly, however, molecular biology has uncovered also a third great mechanism at the heart of life. The existence of the genetic code and of many other organic codes in Nature tells us that molecular coding is a biological reality and we need therefore a framework that accounts for it. This framework is Code biology, the study of the codes of life, a new field of research that brings to light an entirely new dimension of the living world and gives us a completely new understanding of the origin and the evolution of life. (shrink)