A fundamental problem in science is how to make logical inferences from scientific data. Mere data does not suffice since additional information is necessary to select a domain of models or hypotheses and thus determine the likelihood of each model or hypothesis. Thomas Bayes’ Theorem relates the data and prior information to posterior probabilities associated with differing models or hypotheses and thus is useful in identifying the roles played by the known data and the assumed prior information when making (...) inferences. Scientists, philosophers, and theologians accumulate knowledge when analyzing different aspects of reality and search for particular hypotheses or models to fit their respective subject matters. Of course, a main goal is then to integrate all kinds of knowledge into an all-encompassing worldview that would describe the whole of reality. A generous description of the whole of reality would span, in the order of complexity, from the purely physical to the supernatural. These two extreme aspects of reality are bridged by a nonphysical realm, which would include elements of life, man, consciousness, rationality, mental and mathematical abstractions, etc. An urgent problem in the theory of knowledge is what science is and what it is not. Albert Einstein’s notion of science in terms of sense perception is refined by defining operationally the data that makes up the subject matter of science. It is shown, for instance, that theological considerations included in the prior information assumed by Isaac Newton is irrelevant in relating the data logically to the model or hypothesis. In addition, the concepts of naturalism, intelligent design, and evolutionary theory are critically analyzed. Finally, Eugene P. Wigner’s suggestions concerning the nature of human consciousness, life, and the success of mathematics in the natural sciences is considered in the context of the creative power endowed in humans by God. (shrink)

It is becoming clear that many of today’s management theories are inadequate theoretically and practically to move understanding, scholarship, and practice to where it needs to be for scholars, business leaders, and policy makers to cope with an increasing fraught world. This Special Issue’s focus is on sustainability. Sustainability challenges need to incorporate multidisciplinary interventions and the trans- and interdisciplinary nature of solutions. To actively seek transformation toward sustainability, fundamental and innovative short-term as well as long-term efforts are required in (...) society, economy, technology, and education, including our understanding of human behavior and attitudes toward the management of the environment. This introductory piece presents natural science theories as a promising approach for achieving progress toward transformation for sustainability. (shrink)

The author proposes the thesis that all perception, including observation in natural science, is hermeneutical as well as causal; that is, the perceiver (or observer) learns to 'read' instrumental or other perceptual stimuli as one learns to read a text. This hermeneutical aspect at the heart of natural science is located where it might be least expected, within acts of scientific observation. In relation to the history of science, the question is addressed to what (...) extent the hermeneutical component within scientific observation opens natural science to the charge of reflecting merely cultural values, and of providing merely a culturally acceptable reading of the "Book of Nature", rather than, as the author states, one stating universal antecedent conditions of possibility of cultural activity itself. (shrink)

Well before the current age of discourse, deconstruction, and multiculturalism, Richard McKeon propounded a philosophy of pluralism showing how "facts" and "values" are dependent on diverse ways of reading texts. This book is a transcription of an entire course, including both lectures and student discussions, taught by McKeon. As such, it provides an exciting introduction to McKeon's conception of pluralism, a central aspect of neo-Pragmatism, while demonstrating how pluralism works in a classroom setting. In his lectures, McKeon outlines the (...) entire history of Western thinking on the sciences. Treating the central concepts of motion, space, time, and cause, he traces modern intellectual debates back to the ancient Greeks, notably Plato, Aristotle, Democritus, and the Sophists. As he brings the story of Western science up to the twentieth century, he uses his fabled semantic schema (reproduced here for the first time) to uncover new ideas and observations about cosmology, mechanics, dynamics, and other aspects of physical science. Illustrating the broad historical sweep of the lectures are a series of discussions which give detail to the course's intellectual framework. These discussions of Plato, Aristotle, Galileo, Newton, and Maxwell are perhaps the first published rendition of a philosopher in literal dialogue with his students. Led by McKeon's pointed questioning, the discussions reveal the difficulties and possibilities of learning to engage in serious intellectual communication. (shrink)

Applied Natural Science: Environmental Issues and Global Perspectives will provide the reader with a complete insight into the natural-scientific pattern of the world, covering the most important historical stages of the development of various areas of science, methods of natural-scientific research, general scientific and philosophical concepts, and the fundamental laws of nature. The book analyzes the main scientific trends and developments of modern natural science and also discusses important aspects of environmental protection. Topics (...) include: the problem of "the two cultures": the mathematization of natural sciences and the informatization of society; the non-linear nature of the processes occurring in nature and society; application of the second law of thermodynamics to describe the development of biological systems; global problems of the biosphere; theory and practice of stable organic paramagnetic materials; polymers and the natural environment. Key features include: an interdisciplinary approach in considering scientific and technical problems; a discussion of general scientific trends in modern natural science, including globalization challenges in nature and society, the organic chemistry of stable paramagnetic materials, the fundamentals of the environmental chemistry of polymeric materials, etc.; a justification of applying classical (non-equilibrium) thermodynamics to studying the behavior of open (including biological) systems. (shrink)

Psychology considered as a natural science began as Aristotelian "physics" or "natural philosophy" of the soul. C. Wolff placed psychology under metaphysics, coordinate with cosmology. Scottish thinkers placed it within moral philosophy, but distinguished its "physical" laws from properly moral laws (for guiding conduct). Several Germans sought to establish an autonomous empirical psychology as a branch of natural science. British and French visual theorists developed mathematically precise theories of size and distance perception; they created instruments (...) to test these theories and to measure visual phenomena such as the duration of visual impressions. These investigators typically were dualists who included mental phenomena within nature. (shrink)

An exploration of the moral and ethical implications of new biotechnologies Many of the ethical issues raised by new technologies have not been widely examined, discussed, or indeed settled. For example, robotics technology challenges the notion of personhood. Should a robot, capable of making what humans would call ethical decisions, be held responsible for those decisions and the resultant actions? Should society reward and punish robots in the same way that it does humans? Likewise, issues of safety, environmental concerns, and (...) distributive justice arise with the increasing acceptance of genetically modified organisms in food production nanotechnology in engineering and medicine, and human gene therapy and enhancement. The problem of dual-use—when a technology can be used both to benefit and to harm—exists with virtually all new technologies but is central in the context of emerging 21st century technologies ranging from artificial intelligence and robotics to human gene-editing and brain-computer interfacing. In Re-Creating Nature: Science, Technology, and Human Values in the Twenty-First Century, James T. Bradley addresses emerging biotechnologies with prodigious potential to benefit humankind but that are also fraught with ethical consequences. Some actually possess the power to directly alter the evolution of life on earth including human. Specifically, these topics include stem cells, synthetic biology, GMOs in agriculture, nanotechnology, bioterrorism, CRISPR gene-editing technology, three-parent babies, robotics and roboethics, artificial intelligence, and human brain research and neurotechnologies. Offering clear explanations of these various technologies, a pragmatic presentation of the conundrums involved, and questions that illuminate hypothetical situations, Bradley guides discussions of these and other thorny issues resulting from the development of new biotechnologies. He also highlights the responsibilities of scientists to conduct research in an ethical manner and the responsibilities of nonscientists to become “science literate” in the twenty-first century. (shrink)

This study aims to understand scientific inference for the evolutionary procedure of Continental Drift based on abductive inference, which is important for creative inference and scientific discovery during problem solving. We present the following two research problems: (1) we suggest a scientific inference procedure as well as various strategies and a criterion for choosing hypotheses over other competing or previous hypotheses; aspects of this procedure include puzzling observation, abduction, retroduction, updating, deduction, induction, and recycle; and (2) we analyze the “theory (...) of continental drift” discovery, called the Earth science revolution, using our multistage inference procedure. Wegener’s Continental Drift hypothesis had an impact comparable to the revolution caused by Darwin’s theory of evolution in biology. Finally, the suggested inquiry inference model can provide us with a more consistent view of science and promote a deeper understanding of scientific concepts. (shrink)

This article examines some of the contributions to the contemporary debate over the question of whether there is an important distinction to be made between the natural and the human sciences. In particular, the article looks at the arguments that Charles Taylor has put forward for the recognition of a radical discontinuity between these forms of science and then examines Richard Rorty's objections to Taylor's distinction and argues that Rorty misunderstands the reasons for this distinction and thereby misses (...) the political implications of failing to make such a distinction. In this regard, some arguments made by Anthony Giddens and John O'Neill, respectively, around Alfred Schutz's "postulate of adequacy" are used to show how the social sciences must be conceived so as to avoid consequences inimical to the reproduction and maintenance of participatory, democratic institutions. Additionally, the article uses O'Neill's argument that the Schutzian conceptualization of interpretive sciences can be critical in a way that Giddens and Jürgen Habermas require, while including a translation and accountability principle, to demonstrate how we ought to respect participatory, democratic forms. (shrink)

One of the important ways for us to raise our level of philosophical research is to study and summarize the history of natural science. Lenin pointed out that the whole history of thought, including the history of each branch of natural science, is "a realm of knowledge which should establish cognitive theory and dialectics." In indicating philosophical research tasks, Lenin further wrote: "If we want to carry on the enterprises of Hegel and Marx, we should (...) dialectically study the history of man's thought, science, and technology.". (shrink)

The Center for Theology and the Natural Sciences and the Vatican Observatory have jointly sponsored a series of conferences exploring the overarching question: How can we conceive a personal God creating and active within the universe described by the natural sciences? The volumes include significant contributions to the field, although I highlight two important weaknesses: (1) theology is not adequately respected as an active conversation partner capable of advancing the agenda under discussion; and (2) insufficient attention is paid (...) to the many scientific and philosophical uncertainties that plague the overall project. (shrink)

This 1983 book is a lively and clearly written introduction to the philosophy of natural science, organized around the central theme of scientific realism. It has two parts. 'Representing' deals with the different philosophical accounts of scientific objectivity and the reality of scientific entities. The views of Kuhn, Feyerabend, Lakatos, Putnam, van Fraassen, and others, are all considered. 'Intervening' presents the first sustained treatment of experimental science for many years and uses it to give a new direction (...) to debates about realism. Hacking illustrates how experimentation often has a life independent of theory. He argues that although the philosophical problems of scientific realism can not be resolved when put in terms of theory alone, a sound philosophy of experiment provides compelling grounds for a realistic attitude. A great many scientific examples are described in both parts of the book, which also includes lucid expositions of recent high energy physics and a remarkable chapter on the microscope in cell biology. (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)

The idea that research should become more interdisciplinary has become commonplace. According to influential commentators, the unprecedented complexity of problems such as climate change or the social implications of biomedicine demand interdisciplinary efforts integrating both the social and natural sciences. In this context, the question of whether a given knowledge practice is too disciplinary, or interdisciplinary, or not disciplinary enough has become an issue for governments, research policy makers and funding agencies. Interdisciplinarity, in short, has emerged as a key (...) political preoccupation; yet the term tends to obscure as much as illuminate the diverse practices gathered under its rubric. This volume offers a new approach to theorising interdisciplinarity, showing how the boundaries between the social and natural sciences are being reconfigured. It examines the current preoccupation with interdisciplinarity, notably the ascendance of a particular discourse in which it is associated with a transformation in the relations between science, technology and society. Contributors address attempts to promote collaboration between, on the one hand, the natural sciences and engineering and, on the other, the social sciences, arts and humanities. From ethnography in the IT industry to science and technology studies, environmental science to medical humanities, cybernetics to art-science, the collection interrogates how interdisciplinarity has come to be seen as a solution not only to enhancing relations between science and society, but the pursuit of accountability and the need to foster innovation. Interdisciplinarity is essential reading for scholars, students and policy makers across the social sciences, arts and humanities, including anthropology, geography, sociology, science and technology studies and cultural studies, as well as all those engaged in interdisciplinary research. It will have particular relevance for those concerned with the knowledge economy, science policy, environmental politics, applied anthropology, ELSI research, medical humanities, and art-science. (shrink)

In the field of natural science, Aristotle recognizes as his forerunners a select group of theorists such as Heraclitus of Ephesus, Empedocles of Acragas, Anaxagoras of Clazomenae, and Leucippus and Democritus of Abdera. In addition, he mentions in the same contexts some whose claims to be “natural philosophers” are doubtful, yet who deserve notice in the same context, including Parmenides of Elea, Melissus of Samos, the people called Pythagoreans, and Plato as the author of the Timaeus. (...) Aristotle takes seriously almost all of these people, treating them as exemplary pioneers and valuable partners in the enterprise of “natural philosophy.” This article examines earlier opinions on certain fundamental questions about the natural world, as treated in the first three books of the Physics and in the first book of the Metaphysics. In Physics II and III, Aristotle represents most if not all of his predecessors as disastrously misunderstanding, in more than one way, the nature underlying the natural world. (shrink)

Psychology considered as a natural science began as Aristotelian "physics" or "natural philosophy" of the soul, conceived as an animating power that included vital, sensory, and rational functions. C. Wolff restricted the term " psychology " to sensory, cognitive, and volitional functions and placed the science under metaphysics, coordinate with cosmology. Near the middle of the eighteenth century, Krueger, Godart, and Bonnet proposed approaching the mind with the techniques of the new natural science. At (...) nearly the same time, Scottish thinkers placed psychology within moral philosophy, but distinguished its "physical" laws from properly moral laws. British and French visual theorists developed mathematically precise theories of size and distance perception; they created instruments to test these theories and to measure visual phenomena such as the duration of visual impressions. By the end of the century there was a flourishing discipline of empirical psychology in Germany, with a professorship, textbooks, and journals. The practitioners of empirical psychology at this time typically were dualists who included mental phenomena within nature. Accordingly, psychology as a natural scientific disciplines was not invented in the 18th and 19th centuries, but *remade* from the extant empirical psychology. (shrink)

[from the publisher's website] Questions about the existence and attributes of God form the subject matter of natural theology, which seeks to gain knowledge of the divine by relying on reason and experience of the world. Arguments in natural theology rely largely on intuitions and inferences that seem natural to us, occurring spontaneously—at the sight of a beautiful landscape, perhaps, or in wonderment at the complexity of the cosmos—even to a nonphilosopher. In this book, Helen De Cruz (...) and Johan De Smedt examine the cognitive origins of arguments in natural theology. They find that although natural theological arguments can be very sophisticated, they are rooted in everyday intuitions about purpose, causation, agency, and morality. Using evidence and theories from disciplines including the cognitive science of religion, evolutionary ethics, evolutionary aesthetics, and the cognitive science of testimony, they show that these intuitions emerge early in development and are a stable part of human cognition. -/- De Cruz and De Smedt analyze the cognitive underpinnings of five well-known arguments for the existence of God: the argument from design, the cosmological argument, the moral argument, the argument from beauty, and the argument from miracles. Finally, they consider whether the cognitive origins of these natural theological arguments should affect their rationality. (shrink)

During the first week of October 1983, the Italian Institute for the Study of Philosophy, together with the Philosophical Seminar of the University of Tübingen, organized a public colloquium on Hegel’s philosophy of the natural sciences. Those attending included a selected group of Italian scholars doing advanced research into early nineteenth century German philosophy, students and members of the general public from Tübingen, and a number of specialists from elsewhere in Germany and from the Netherlands.

A number of modern theologians have concluded that the rise of natural science makes it necessary to give up the idea that God acts in particular ways to affect the course of events in the world. I reply to this claim, taking up the challenge to explain what might be meant by a ”special’ act of God. There are several ways to conceive of such acts, including the possibility that God might determine what is left determinable in (...) the structures of nature, e.g., at the quantum level. I address objections to this view, and consider metaphysical puzzles that it presents. (shrink)

Progress in neuroscience has left a central question of psychism unanswered: what is consciousness? Modeling the psyche from a computational perspective has helped to develop cognitive neurosciences, but it has also shown their limits, of which the definition, description and functioning of consciousness remain essential. From Rene Descartes, who tackled the issue of psychism as the brain-mind dualism, to Chambers, who defined qualia as the tough, difficult problem of research in neuroscience, many hypotheses and theories have been issued to encompass (...) the phenomenon of consciousness. Neuroscience specialists, such as Giulio Tononi or David Eagleman, consider consciousness as a phenomenon of emergence of all processes that take place in the brain. This hypothesis has the advantage of being supported by progress made in the study of complex systems in which the issue of emergence can be mathematically formalized and analyzed by physical-mathematical models. The current tendency to associate neural networks within the broad scope of network science also allows for a physical-mathematical formalization of phenomenology in neural networks and the construction of information-symbolic models. The extrapolation of emergence at the level of physical systems, biological systems and psychic systems can bring new models that can also be applied to the concept of consciousness. The meaning and significance that seem to structure the nature of consciousness is found as direction of evolution and teleological finality, of integration in the whole system and in any complex system at all scales. Starting from the wave-corpuscle duality in quantum physics, we can propose a model for structuring reality, based on the emergence of systems that contribute to the integration and coherence of the entire reality. Physical-mathematical models based mainly on topology can provide a mathematical formalization path, and the paradigm of information could allow the development of a pattern of emergence, that is common to all systems, including the psychic system, the difference being given only by the degree of information complexity. Thus, the mind-brain duality, which has been dominating the representation on psychism for a few centuries, could be solved by an informational approach, describing the connection between object and subject, reality and human consciousness, between mind and brain, thus unifying the perspective on natural sciences and humanities. (shrink)

Aristotle argued that in theory one could acquire knowledge of the natural world. But he did not stop there; he put his theories into practice. This volume of new essays shows how Aristotle's natural science and philosophical theories shed light on one another. The contributors engage with both biological and non-biological scientific works and with a wide variety of theoretical works, including Physics, Generation and Corruption, On the Soul, and Posterior Analytics. The essays focus on a (...) number of themes, including the sort of explanation provided by matter; the relationship between matter, teleology, and necessity; cosmic teleology; how an organism's soul and faculties relate to its end; how to define things such as sleep, void, and soul; and the proper way to make scientific judgments. The resulting volume offers a rich and integrated view of Aristotle's science and shows how it fits with his larger philosophical theories. (shrink)

The picture of the beginnings of humankind presented by natural science is often contrasted with what is conveyed in Scripture. It has been pointed out that the Edenic state before sin – which we refer to as original justice – was a time of absolute perfection in which there was no room for any deficiency. According to Thomas Aquinas, however, this picture conflicts with what Paradise was as a state on the way to Heaven. For Aquinas, the difference (...) between Paradise and the present situation is not an ontological one but a change of circumstance, because original justice was not a period of salvation. This means that Paradise was a period of development, thanks to the grace received, which is reconcilable with the principled account of natural science. The key is the distinction between Paradise and Heaven, which sets religion–science reflections in their proper context. Contribution: The article drew attention to notions of original justice, emphasising the Paradise time as the development of virtues, including the theological virtue of faith. This helps to build an adequate theological framework for a fruitful dialogue with the natural sciences, as recommended by Buitendag. (shrink)

Philosophy of science includes the epistemology of natural science as a major component. The epistemology of natural science seeks a correct explanation of the conditions for scientific knowledge of the natural world. A central part of such epistemology is the theory of scientifically justified belief. A scientifically justified belief, roughly characterized, is a belief appropriately warranted to be a component of scientific knowledge. The conditions for a belief's being thus appropriately warranted attract much controversy (...) among epistemologists of natural science. -/- . (shrink)

Ruth Myrtle Patrick was a pioneering ecologist and taxonomist whose extraordinary career at the Academy of Natural Sciences of Philadelphia spanned over six decades. In 1947, an opportunity arose for Patrick to lead a new kind of river survey for the Pennsylvania Sanitary Water Board to study the effects of pollution on aquatic organisms. Patrick leveraged her already extensive scientific network, which included ecologist G. Evelyn Hutchinson, to overcome resistance within the Academy, establish a new Department of Limnology, and (...) carry out the survey, which was a resounding success and brought much needed money to the Academy. As demand for her expertise grew among industrial companies, such as the chemical company DuPont, Patrick became more active in the world of applied science. She repurposed data and instruments from her river surveys to run new experiments, test ecological theories, and conduct long-term ecological studies. Through these studies, she advanced an argument that biologist Thomas Lovejoy dubbed the “Patrick principle,” the idea that the ecological health of a body of water could be measured by the relative abundance and diversity of species living there. Patrick was elected to the National Academy of Sciences in 1970, became a board member of DuPont in 1975, and received two of the most prestigious awards in ecology: the Eminent Ecologist Award from the Ecological Society of America in 1972 and the Tyler Ecology Award in 1975. This article analyzes Patrick’s unusual success in bridging the worlds of science and industry and her unusual ability to cross, and redefine, the perceived boundary between basic and applied fields in biology. It argues that Patrick’s position at the Academy, an institution of natural history that was both willing and able to accept money from industrial corporations, is key to understanding her success in, and influence on, the field of river ecology. (shrink)

This volume addresses the question of time from the perspective of the time of nature. Its aim is to provide some insights about the nature of time on the basis of the different uses of the concept of time in natural sciences. Presenting a dialogue between philosophy and science, it features a collection of papers that investigate the representation, modeling and understanding of time as they appear in physics, biology, geology and paleontology. It asks questions such as: whether (...) or not the notions of time in the various sciences are reducible to the same physical time, what status should be given to timescale differences, or what are the specific epistemic issues raised by past facts in natural sciences. The book first explores the experience of time and its relation to time in nature in a set of chapters that bring together what human experience and physics enable metaphysicians, logicians and scientists to say about time. Next, it studies time in physics, including some puzzling paradoxes about time raised by the theory of relativity and quantum mechanics. The volume then goes on to examine the distinctive problems and conceptions of time in the life sciences. It explores the concept of deep time in paleontology and geology, time in the epistemology of evolutionary biology, and time in developmental biology. Each scientific discipline features a specific approach to time and uses distinctive methodologies for implementing time in its models. This volume seeks to define a common language to conceive of the distinct ways different scientific disciplines view time. In the process, it offers a new approach to the issue of time that will appeal to a wide range of readers: philosophers and historians of science, metaphysicians and natural scientists - be they scholars, advanced students or readers from an educated general audience. (shrink)

Following an initial discussion of the general nature of interpretation in contemporary psychology, and social and natural science, relevant views of Charles Taylor and Thomas Kuhn are considered in some detail. Although both Taylor and Kuhn agree that interpretation in the social or human sciences differs in some ways from interpretation in the natural sciences, they disagree about the nature and origins of such difference. Our own analysis follows, in which we consider differences in interpretation between the (...) natural and social sciences in terms of Ian Hacking's use of Elizabeth Anscombe's conceptualization of actions as intentional acts under particular descriptions. We conclude that both Taylor and Kuhn are correct to point to differences in interpretation between the natural and social sciences. We also argue that in psychology, such interpretive differences, contra Kuhn and pro Taylor, are qualitative rather than quantitative. They arise from the nature of persons as self-interpretive, reactive beings who act under socioculturally sanctioned, linguistic descriptions. The actions of psychological persons may display qualitative differences over time and across contexts as these descriptions, including social scientific and psychological findings and interpretations, change. In contrast, even when descriptions in natural science change, such changes do not spawn changes in the self-interpretations and intentional actions of the focal phenomena of natural science. We also make the point that much current confusion surrounding interpretation in science arises from the unwarranted tendency of some commentators to treat interpretation as subjective, in ways that ignore the objective grounding of interpretation within regulated social practices, including scientific practices sanctioned by scientific communities. (shrink)

THE GENERATION which separates Hempel's latest major publication from his first has seen the philosophy of science come into its own as one of the chief subdivisions of philosophy, with a recognizable and coherent set of problems yielding to a recognizable and coherent set of strategies for solution. Not, of course, that in 1936 the philosophy of science was a new discipline—far from it: if anybody deserves credit for getting the field started it is probably Democritus. Nor that (...) the publication of Der Typusbegriff marked a new era in the development of the subject, the recent literature of which included, after all, The Logic of Modern Physics, Der Logische Aufbau der Welt, and Logik der Forschung. The point which these facts illustrate is simply that Hempel's professional career spans a period of intense activity during which the philosophical discipline to which he has made his greatest contribution arrived at an evident maturity and autonomy. The aim of this essay is to examine his contribution to that activity, and to deal with some recent arguments to the effect that the process of development has carried the philosophy of science away from science itself, on which in some sense or other it clearly depends for its intellectual relevance and honesty. (shrink)

Abstract: The paper argues that mainstream economics and mainstream philosophy of natural science had much in common during the period 1945-1965. It examines seven common features of the two fields and suggests a number of historical developments that might help explain these similarities. The historical developments include: the Vienna Circle connection, the Samuelson-Harvard-Foundations connection, and the Cold War operations research connection.

The reticulated model of scientific rationality includes the goal of the investigation, the method by which the goal is achieved, and the epistemic values needed to assess whether the goal was achieved by the applied method. I expand this model of rationality to include metaphysical assumptions and commitments that inform the origins of epistemic claims. I then explore the rational boundaries between the natural sciences and Christian theology in terms of goals, methods, and metaphysics. Finally, I discuss the advantages (...) and problems of exploring the rational boundaries between science and theology. (shrink)

Altmann, a mathematical physicist (Oxford U.) provides a philosophical framework for educated lay readers to understand the meaning of natural law, the scientific method, and causality in science. Reviewing the classical approach to time, space, and the laws of mechanics, he also explains key modern concepts such as randomness, probability, the nature of mathematics, Godel's theorems, and quantum mechanics. Altmann considers the reactions of various philosophical schools--including idealism, physicalism, cultural relativism, and social constructivism--to scientific developments. Annotation copyrighted (...) by Book News Inc., Portland, OR. (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)

This article explains that and how values and evaluations are unavoidably and conspicuously present within natural scientists and their sciences—and why they are definitely not “value-free”. It shows how such things can be rationally understood and assessed within the framework of formal axiology, the value theory developed by Robert S. Hartman and those who have been deeply influenced by his reflections. It explains Hartman’s highly plausible and applicable definitions of “good” and related value concepts. It identifies three basic kinds (...) of value objects and human evaluations of these, and it shows how these should be ranked or prioritized in comparative worth. Finally, throughout, it applies all of the above to what is really going on within natural scientists and their sciences. It shows how anyone, scientists included, should proceed in order to make sense of what and how they value. (shrink)

Investigators of animal behavior since the eighteenth century have sought to make their work integral to the enterprises of natural history and/or the life sciences. In their efforts to do so, they have frequently based their claims of authority on the advantages offered by the special places where they have conducted their research. The zoo, the laboratory, and the field have been major settings for animal behavior studies. The issue of the relative advantages of these different sites has been (...) a persistent one in the history of animal behavior studies up to and including the work of the ethologists of the twentieth century. (shrink)

This book presents four bridges connecting work in virtue epistemology and work in philosophy of science that may serve as catalysts for the further development of naturalized virtue epistemology. These bridges are: empirically informed theories of epistemic virtue; virtue theoretic solutions to under determination; epistemic virtues in the history of science; and the value of understanding. Virtue epistemology has opened many new areas of inquiry in contemporary epistemology including: epistemic agency, the role of motivations and emotions in (...) epistemology, the nature of abilities, skills and competences, wisdom and curiosity. Value driven epistemic inquiry has become quite complex and there is a need for a responsible and rigorous process of constructing naturalized theories of epistemic virtue. This volume makes the involvement of the sciences more explicit and looks at the empirical aspect of virtue epistemology. Concerns about virtue epistemology are considered in the essays contained here, including the question: can any virtue epistemology meet both the normativity constraint and the empirical constraint? The volume suggests that these worries should not be seen as impediments but rather as useful constraints and desiderata to guide the construction of naturalized theories of epistemic virtue. (shrink)

The contributors to this 1981 volume are all concerned with scientific realism, but each author questions or rejects aspects of the way it has traditionally been discussed. There are three main foci of attention - reduction, time and modality - and the analyses bring out complexities and difficulties obscured in the standard accounts of scientific realism. The papers are powerful and original, representing some of the best in modern philosophy of science, and each were specifically commissioned for the volume. (...) It is an excellent source book for courses on realism or the philosophy of science. The book therefore takes its place in the informal series of volumes arising from meetings sponsored by the Thyssen Foundation, which already includes C. Hookway and P. Pettit Action and Interpretation and R. Harrison Rational Action. (shrink)

The contributors to this 1981 volume are all concerned with scientific realism, but each author questions or rejects aspects of the way it has traditionally been discussed. There are three main foci of attention - reduction, time and modality - and the analyses bring out complexities and difficulties obscured in the standard accounts of scientific realism. The papers are powerful and original, representing some of the best in modern philosophy of science, and each were specifically commissioned for the volume. (...) It is an excellent source book for courses on realism or the philosophy of science. The book therefore takes its place in the informal series of volumes arising from meetings sponsored by the Thyssen Foundation, which already includes C. Hookway and P. Pettit Action and Interpretation and R. Harrison Rational Action. (shrink)

Are bacteriophage T4 and the long-nosed elephant fish valuable in their own right? Nicholas Agar defends an affirmative answer to this question by arguing that anything living is intrinsically valuable. This claim challenges received ethical wisdom according to which only human beings are valuable in themselves. The resulting biocentric or life-centered morality forms the platform for an ethic of the environment. -/- Agar builds a bridge between the biological sciences and what he calls "folk" morality to arrive at a workable (...) environmental ethic and a new spectrum--a new hierarchy--of living organisms. The book overturns common-sense moral belief as well as centuries of philosophical speculation on the exclusive moral significance of humans. Spanning several fields, including philosophy of psychology, philosophy of science, and other areas of contemporary analytic philosophy, Agar analyzes and speaks to a wide array of historic and contemporary views, from Aristotle and Kant, to E. O. Wilson, Holmes Rolston II, and Baird Callicot. The result is a challenge to prevailing definitions of value and a call for a scientifically-informed appreciation of nature. (shrink)

This is a lively and clearly written introduction to the philosophy of natural science, organized around the central theme of scientific realism. It has two parts. 'Representing' deals with the different philosophical accounts of scientific objectivity and the reality of scientific entities. The views of Kuhn, Feyerabend, Lakatos, Putnam, van Fraassen, and others, are all considered. 'Intervening' presents the first sustained treatment of experimental science for many years and uses it to give a new direction to debates (...) about realism. Hacking illustrates how experimentation often has a life independent of theory. He argues that although the philosophical problems of scientific realism can not be resolved when put in terms of theory alone, a sound philosophy of experiment provides compelling grounds for a realistic attitude. A great many scientific examples are described in both parts of the book, which also includes lucid expositions of recent high energy physics and a remarkable chapter on the microscope in cell biology. (shrink)

We present an annotated bibliography of peer reviewed scientific research highlighting the human health, animal welfare, and environmental risks associated with genetic modification. Risks associated with the expression of the transgenic material include concerns over resistance and non-target effects of crops expressing Bt toxins, consequences of herbicide use associated with genetically modified herbicide-tolerant plants, and transfer of gene expression from genetically modified crops through vertical and horizontal gene transfer. These risks are not connected to the technique of genetic modification as (...) such, but would be present for any conventionally produced crops with the same heritable traits. In contrast, other risks are a direct consequence of the method used in gene manipulation. These come about because of the unstable nature of the transgene and vectors used to insert it, and because of unpredictable interactions between the transgene and the host genome. The debate over the release of genetically modified organisms is not merely a scientific one; it encompasses economics, law, ethics, and policy. Any discussion on these levels does, however, need to be informed by sound science. We hope that the scientific references provided here will provide a useful starting point for further debate. (shrink)

The six essays in this volume discuss philosophical thought on scientific theory including: a call for a realist, rather than instrumentalist interpretation of science; a critique of one of the core ideas of positivism concerning the relation between observational and theoretical languages; using aerodynamics to discuss the representational aspect of scientific theories and their isomorphic qualities; the relationship between the reliability of common sense and the authenticity of the world view of science; removing long-held ambiguities on the (...) theory of inductive logic; and the relationship between the actuality of conceptual revolutions in the history of science and traditional philosophical pictures of scientific theory-building. (shrink)

As recent research has shown, many of the activities of early modern (including eighteenth‐century) naturalists were carried out in the household. This article investigates the ways in which family members in particular, both male and female, ended up engaging in kinds of labor which furthered the pursuit of natural history in the eighteenth century. Examining evidence from various different parts of Europe and its colonies, the article argues that natural history can be seen to have often been (...) what might be termed a family enterprise, one to which many different family members might contribute in ways shaped by concerns of kinship and inheritance. (shrink)

The six essays in this volume discuss philosophical thought on scientific theory including: a call for a realist, rather than instrumentalist interpretation of science; a critique of one of the core ideas of positivism concerning the relation between observational and theoretical languages; using aerodynamics to discuss the representational aspect of scientific theories and their isomorphic qualities; the relationship between the reliability of common sense and the authenticity of the world view of science; removing long-held ambiguities on the (...) theory of inductive logic; and the relationship between the actuality of conceptual revolutions in the history of science and traditional philosophical pictures of scientific theory-building. (shrink)

Normative apriorist philosophers of science build purely normative a priori reconstructions of science, whereas descriptive naturalists eliminate the normative elements of the philosophy of science in favor of purely descriptive endeavors. I hope to exhibit the virtues of an alternative approach that appreciates both the normative and the natural in the philosophy of science. ;Theory ladenness. Some philosophers claim that a plausible view about how our visual systems work either undermines or facilitates our ability to (...) rationally adjudicate between competing theories on the basis of a theory-neutral observation language. I argue that these psychological premises do not support the epistemological conclusions drawn. ;Scientific theories. I argue for a psychological plausibility constraint: An account of scientific theories should tell us how a theory is mentally represented. I tentatively advance an account that satisfies the constraint. Finally, I criticize the traditional view of theories and the semantic view of theories . ;Conceptual clarity. Philosophers often offer classical accounts of terms ; then others adduce alleged counterexamples. The success conditions on these accounts must include either preserving or revising the original term's extension. Given recent psychological theorizing, the probability that we can find an extension-preserving classical account of a term is very low. Furthermore, it provides no benefits over the empirical effort to find the non-classical conditions we actually use in applying our terms. If the aim of counterexample philosophy is to non-arbitrarily revise the extension of the original term, I argue that we should choose a particular account of a term on the basis of how it performs in our best available theory on the subject. ;Conclusion. I argue that normative apriorists unwittingly make defeasible empirical assumptions that, if false, would undermine their normative claims. Against descriptive naturalism I argue that the cost of ignoring normative issues is exorbitant. Finally, I defend a version of normative naturalism, a style of philosophy of science that is informed--but not engulfed--by empirical assumptions. (shrink)

This book offers an interdisciplinary account of the role of science and technology in contemporary culture, culminating in a social-political and philosophical critique of transhumanism. Its central claim is that it is past time to restrain the runaway ambitions of technoscientific knowledge. The author probes the assumptions of leading transhumanist thinkers and reviews the arguments of prominent critics as he develops his own distinctive take on transhumanism. He frames these other discussions within a wider critique of the modern technoscientific (...) impulse, which is seen as the hidden driver of any number of the social pathologies. Crucially, he offers his own naturalistic account of an alternative path for human flourishing, and discusses how philosophy needs to change in order to better contribute to pressing societal questions and to be made relevant to public policy. The interdisciplinary orientation of Transhumanism and Nature makes it relevant to scholars and students across a wide range of disciplines, including social and political philosophy, philosophy of technology, science and technology studies, environmental studies, and public policy. it relevant to scholars and students across a wide range of disciplines, including social and political philosophy, philosophy of technology, science and technology studies, environmental studies, and public policy. (shrink)

Moral, social, political, and other “nonepistemic” values can lead to bias in science, from prioritizing certain topics over others to the rationalization of questionable research practices. Such values might seem particularly common or powerful in the social sciences, given their subject matter. However, I argue first that the well-documented phenomenon of motivated reasoning provides a useful framework for understanding when values guide scientific inquiry (in pernicious or productive ways). Second, this analysis reveals a parity thesis: values influence the social (...) and natural sciences about equally, particularly because both are so prominently affected by desires for social credit and status, including recognition and career advancement. Ultimately, bias in natural and social science is both natural and social— that is, a part of human nature and considerably motivated by a concern for social status (and its maintenance). Whether the pervasive influence of values is inimical to the sciences is a separate question. (shrink)

Available for the first time in English, this is the definitive account of the practice of sexual slavery the Japanese military perpetrated during World War II by the researcher principally responsible for exposing the Japanese government's responsibility for these atrocities. The large scale imprisonment and rape of thousands of women, who were euphemistically called "comfort women" by the Japanese military, first seized public attention in 1991 when three Korean women filed suit in a Toyko District Court stating that they had (...) been forced into sexual servitude and demanding compensation. Since then the comfort stations and their significance have been the subject of ongoing debate and intense activism in Japan, much if it inspired by Yoshimi's investigations. How large a role did the military, and by extension the government, play in setting up and administering these camps? What type of compensation, if any, are the victimized women due? These issues figure prominently in the current Japanese focus on public memory and arguments about the teaching and writing of history and are central to efforts to transform Japanese ways of remembering the war. Yoshimi Yoshiaki provides a wealth of documentation and testimony to prove the existence of some 2,000 centers where as many as 200,000 Korean, Filipina, Taiwanese, Indonesian, Burmese, Dutch, Australian, and some Japanese women were restrained for months and forced to engage in sexual activity with Japanese military personnel. Many of the women were teenagers, some as young as fourteen. To date, the Japanese government has neither admitted responsibility for creating the comfort station system nor given compensation directly to former comfort women. This English edition updates the Japanese edition originally published in 1995 and includes introductions by both the author and the translator placing the story in context for American readers. (shrink)

For centuries, religion and philosophy have been the primary basis for efforts to guide humans to be more ethical. However, training in ethics and religion and imparting positive values and morality tests such as those emanating from the categorical imperative and the Golden Rule have not been enough to protect humankind from its bad behaviors. To improve ethics education educators must better understand aspects of human nature such as those that lead to “self-deception” and “personal bias.” Through rationalizations, faulty reasoning (...) and hidden bias, individuals trick themselves into believing there is little wrong with their own unethical behavior. The application of science to human nature offers the possibility of improving ethics education through better self-knowledge. The author recommends a new paradigm for ethics education in contemporary modern society. This includes the creation of a new field called “applied evolutionary neuro-ethics” which integrates science and social sciences to improve ethics education. The paradigm can merge traditional thinking about ethics from religious and philosophical perspectives with new ideas from applied evolutionary neuro-ethics. (shrink)