This chapter is an examination of the way aporiai are employed in Aristotle’s scientific account of animal reproduction, and how they are resolved. I argue that – surprising as it may be, given what Aristotle says in Metaphysics B about the importance of going through aporiai – there seems to be nothing of much significance about his use of them, at least if we assume that genuine cases of aporiai are being tracked by use of aporia-language. I demonstrate this (...) negative thesis by systematically going through the examples. There seems to be no common purpose for which they are raised, they have no single type of structure, and they are not caused by any one sort of difficulty. (shrink)

This book provides a comprehensive overview of the nature of explanations as given in both natural and social sciences. It discusses models of explanation adopted in natural and social sciences. The author also elaborates upon naturalistic and anti-naturalistic views and other types of explanations such as functional, purposive, etc in social science. The volume elaborates upon themes like bridge principle; functional explanation; purposive explanation; teleological explanation; prediction; methodological individualism; methodological collectivism; illocutionary redescription; principle of action; (...) and dispositional explanations, to understand whether the explanations given in the realm of social sciences are the same or different from the explanations that are given in the field of natural sciences. This introductory book is a must read for students and scholars of philosophy of science, logic, science and technology studies, social sciences, and philosophy in general. (shrink)

This paper examines how in the ‘Critique of teleological judgment’ Kant characterized the concept of natural purpose in relation to and in distinction from the concepts of nature and the concept of purpose he had developed in his other critical writings. Kant maintained that neither the principles of mechanical science nor the pure concepts of the understanding through which we determine experience in general provide adequate conceptualizations of the unique capacities of organisms. He also held that although (...) the concept of natural purpose was derived through reflection upon an analogy to human purposive activity in artistic production and moral action, it articulates a unique notion of intrinsic purposiveness. Kant restricted his critical reflections on organisms to phenomena that can be given to us in experience, criticizing speculations on their first origins or final purpose. But I argue that he held that the concept of natural purpose is a product of the reflecting power of judgment, rather than an empirical concept, and represents only the relation of things to our power of judgment. Yet it is necessary for the identification of organisms as organized and self-organizing, and as subject to unique norms and causal relations between parts and whole. (shrink)

Science has uncovered many mistakes that had been hidden for centuries among implicit everyday assumptions. When we make explicit what lies implicit within language, there is no guarantee that we will arrive at truth about the world. Many therefore assume that only science delivers truth. Recent debates on this issue often refer to Wilfred Sellars’s arguments against the pre-conceptual given but conclude that his additional insistence on the exclusivity of the scientific image of the world is unfounded. In this (...) paper I resort to Robert Brandom’s development of these arguments to show that saying a word, understanding a concept and engaging in some practices go together. Both laws of nature and social norms regulate these practices and determine the identity conditions of objects. I argue therefore that the conceptual scheme indeed reflects the nature of things because it results from our successful engagement with the world during the long sweep of evolutionary time. (shrink)

As much as it is rooted in empirical facts, the concept of truth in natural sciences and technology has core dimensions marked by the sphere of the possible. As can be inferred from Cassirer’s symbol theory, this is, in both cultural forms, a structuring mode of their symbolic constitution and differentiation. But when the coupling of the two increases (as currently happens with the new pictorial forms of scientific prediction), it is necessary to know the major repercussions imposed (...) on the way of conceiving phenomena—among these, mainly those that concern the formation of our idea of nature. In addition to this theoretical imperative, it will be the purpose of this paper to show how Cassirer’s thought helps us to recognize and reconstruct the relationships between experimental scientific knowledge and technological mediation. Keeping this in mind, a narrow articulation of truth’s functional profile with the idea of the future that permeates both science (especially natural sciences) and technology will be conceived to see how the two symbolic forms reveal the prospective complexion of human thought and human action. (shrink)

The controversial idea of a 'science of human nature' raises serious issues in philosophy and philosophical psychology. The questions arising in this respect involve the gradual and ordinarily unnoticed transformations of our beliefs about the reality of human beings among the educated people. The employment of scientific technique in almost every phase of human life has somehow given rise to a dehumanisation of the human. In so far as we are impressed by the successful scientific experiments, we ignore this (...) dehumanism. Consequently, we are willing to allow science to reduce our own human status to that of a biological organism with a complex nervous system and brain. Now it is no more simply a theoretical question about our own reality because there are cases of actual manipulation of human body on behalf of the unquestioned assumptions about the organismic nature of human beings. Genetic engineering and neurophysiology are two fields of inquiry mostly active in this direction. This article is an attempt to point out a most serious philosophical issue arising out of this. This issue is that the scientist takes human thought and consciousness, which are the most valuable, unique and distinctive human characterisation, as secondary and insignificant aspect compared with the biological and physiological processes. Thought is considered as an after effect of neurophysiological processes of brain. Now this is an unjustifiable assumption which cannot in any way be verified. The reasons for the impossibility of reduction of thought and consciousness to neurological level are offered by many quarters. Some of the most important reasons are discussed in this paper. (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)

This chapter contains sections titled: * Science and Rationality as Human Practices * Practical Objectivity and Explanatory Focus * Methodological Naturalism and Informal Reasoning * Microdesign and Macrodesign in Science * Note * References * Further Reading.

The inclusion of engineering standards in US science education standards is potentially important because of how limited engineering education for K-12 learners is, despite the ubiquity of engineering in students’ lives. However, the majority of learners experience science education throughout their compulsory schooling. If improved engineering literacy is to be achieved, then its inclusion in science curricula is perhaps the most efficient means. One significant challenge that arises, however, is in the framing of engineering relative to science by both teachers (...) and curriculum. Science and engineering are both distinct and interdependent. The nature of the contributions of science and engineering to one another has been an area of some examination in philosophy of technology and engineering, but little framing of this relationship has been conducted with K-12 science and engineering education contexts in mind. Nature of science is a critical layer of scientific understanding that has been used to explicitly support literacy in K-16 science classrooms for decades. However, engineering cannot be authentically and appropriately supported by NOS framing. There is an immediate need for discourse on the nature of engineering knowledge but not in isolation of NOS. Given the increasing inclusion of engineering in science classrooms, relationships between NOS and NOEK are in need of explication and argument. Our purpose is to promote a discussion about NOS, engineering, and the relationship between them without misrepresenting engineering as a subdomain of science or as an oversimplification of itself. (shrink)

The notion of chance plays an important role in some philosophical analyses and interpretations of scientific theories. The most obvious examples of that are the theories of evolution and quantum mechanics. This notion, however seems to be notoriously vague. Its application in such analyses, more often than not refers to its common-sense understanding, which, by definition, cannot be sufficient when it comes to sound philosophical interpretations of scientific achievements. The paper attempts at formulating a ‘typology of chance’. It distinguishes eight (...) different meanings of this notion. Those meanings can be found in classical philosophical accounts of chance, in the common usage of this term, or form logical possibilities of its understanding. Subsequently, the paper points to those forms of the notion in question which may and may not be properly applied to scientific theories and ideas – given usual characteristics of natural sciences. It also shows – by the examples of particular theories mentioned above – which of the distinguished forms of the notion of chance are actually applicable in the context of these theories. (shrink)

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

This essay has two goals. The first is to define the behavioristic study of natural events and to classify behavior. The second is to stress the importance of the concept of purpose.Given any object, relatively abstracted from its surroundings for study, the behavioristic approach consists in the examination of the output of the object and of the relations of this output to the input. By output is meant any change produced in the surroundings by the object. By (...) input, conversely, is meant any event external to the object that modifies this object in any manner. (shrink)

A number of writers have picked out the way knowledge in the human sciences reflexively alters the human subject as what separates these sciences from the natural sciences. Furthermore, they take this reflexivity to be a condition of moral existence. The article sympathetically examines this emphasis on reflexive processes, but it rejects the particular conclusion that the reflexive phenomenon enables us to demarcate the human sciences. The first sections analyse the different meanings that references to (...) reflexivity have in the psychological and social sciences, in philosophy and in material life, and they link these meanings to the post-positivist philosophy of the social sciences. The discussion considers the problems raised (most influentially in the human sciences by Foucault) by being reflexive about reflexivity itself. They put a large question mark against hopes for a revived philosophical anthropology. Whatever the philosophical arguments, however, there is clearly a reflexive practice in the humanities and human sciences which there is not in the natural sciences. This leads to the argument that there are different forms of knowledge for different purposes and that it may therefore be divergence of purpose, not reflexivity itself, that creates differences among the sciences. It is the fact and purpose of human self-reflection that marks out the human sciences. If this is so, then it explains why an apparently circumscribed question about the classification of knowledge turns out to be inseparable from ontological and moral questions about human identity. (shrink)

One of the hardest questions to answer for a (Neo)platonist is to what extent and how the changing and unreliable world of sense perception can itself be an object of scientific knowledge. My dissertation is a study of the answer given to that question by the Neoplatonist Proclus (Athens, 411-485) in his Commentary on Plato’s Timaeus. I present a new explanation of Proclus’ concept of nature and show that philosophy of nature consists of several related subdisciplines matching the ontological (...) stratification of nature. Moreover, I demonstrate that for Proclus philosophy of nature is a science, albeit a hypothetical one, which takes geometry as its methodological paradigm. I also offer an explanation of Proclus’ view of what is later called the mathematization of physics, i.e. the role of the substance of mathematics, as opposed to its method, in explaining the natural world. Finally, I discuss Proclus’ views of the discourse of philosophy of nature and its iconic character. (shrink)

The article examines the history of the development of the ideas of semiotics, from the works of St. Augustine to the present. The author shares the semiotic approach, which, judging by the literature, was formulated by Augustine, and semiotics as a scientific discipline, and in two versions, as an analogue of mathematics and natural science. The characteristic of the semiotic approach presented by Augustine in the scheme is given, which, the author shows, can be extended to various humanitarian (...) objects. Based on the semiotic approach and classifications of signs, various variants of semiotics as a science were created in the XIX and XX centuries. The difference of scientific semiotics is explained: semiotics solved different problems and tasks, semiotically comprehended different subject areas, proceeded from a different understanding of science. Nevertheless, in all variants of semiotics, relations between the components of the sign were established. The semiotics reform project proposed by G.P. Shchedrovitsky is considered, and what came of it. Based on the analysis of two cases, the author outlines another version of semiotics, which he calls "expressionism". Although the methodology proposed by him allows analyzing and comprehending a fairly wide range of expressions and works of art, the author suggests not to consider it universal. (shrink)

An overview is provided of how the concept of the thought experiment has developed and changed for the natural sciences in the course of the 20th century. First, we discuss the existing definitions of the term 'thought experiment' and the origin of the thought experimentation method, identifying it in Greek Presocratics epoch. Second, only in the end of the 19th century showed up the first systematic enquiry on thought experiments by Ernst Mach's work. After the Mach's work, a (...) negative attitude towards thought experiments came in the beginning of the 20th century, which went on until the Thomas Kuhn's and Karl Popper's work on thought experiments. Only from the mid-1980s did thought experiments begin to be considered relevant to scientific enterprise. Finally, we show the existing empirical and 'functional' theories which have developed about the nature and purpose of thought experiments. (shrink)

The bases of tenets of the World came from the East; Pythagoras learnt all there up the 26 years. At a home, the east ideas where took in no; then he bound the mathematics with the elements of matter. This was the best way to a blood feud of the all Humanity. The 17th age gave the bases of mathematics and the Greek atomism; this had led to the paranoia in all sciences. The LCE was brought in 19th age (...) with bases no; really it was the box of Pandora in the form of wrong sciences of the Nature. The wise revenge of Pythagoras was in the form of riddle for the best thinkers in the World in all times; us solved one in the 50th years. A base of the World is of the material space (MS) with praatoms (PAs) Ao; they are of the affinity to matter. A density of the MS is of ~ 5.10‐6 kg/m3 close to the Ears. PA Ao is of quant of matter and antimatter; they are of rotate in the different sides. All matter takes up Ao and to grow. In the giant stars to go the bursts giving Ao, or caloric. The matter of being in the World on base of the key law of conservation of heat (caloric) and matter by loss of energy; it is main. Leibniz offered to the conservation of mv2 in the World. But Newton knew that any move is damped, and it need in filled up. This the author proved by tests over the 300 years just. D.Bernoulli given to the model of gas. I. Kant proved that mv2 is the quantity of heat by stop of the body; it is no the energy! A key leitmotiv of thought is blocked the grasp of facts if ones not leaded to an accepted concept. P. Mayer had the blunder in base of the LCE; a work of gas expansion in Torricelli tube is equal nil strong! This is the gross blunder of a sick paranoiac! The 21 age gave up a new philosophy and a way to endless engine. The super skills from ideal quartz with moving jaws to respond to the all new philosophy and sciences. (shrink)

Purpose: The relativism inherent in radical constructivism is discussed. The epistemic positions of realism and relativism are contrasted, particularly their different approaches to the concept of truth, denoted (respectively) as "truth by correspondence" and "truth by context." I argue that the latter is the relevant one in the domain of science. Findings: Radical constructivism asserts that all knowledge must be constructed by the individual knower. This has implications for teaching, here imagined as a sharing of knowledge between teacher and (...) students: it should be done, not by "reporting the true facts" of whatever is being taught, but rather by "telling a story" about it. An explicit distinction is made between the notions of cognitive and non-cognitive knowledge. It is argued that cognitive knowledge (such as in mathematics and science) is characterised by rules that can be unambiguously agreed on by actors who choose to "play the game"; and hence such knowledge is directly communicable from the teacher to the students. Implications: In telling the story of science, the teacher can verify that the students "have got it right," even though they are all constructing their knowledge individually. In contrast, for non-cognitive knowledge (emotion, preferences, belief, ...) there are no such unambiguous rules to agree on, and therefore it is not communicable in this way: in telling this story, the teacher has no way of verifying that the same knowledge is actually being shared. Conclusion: Science teaching should be carried out in the mode of story-telling; it does not need an epistemology of realism. (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)

The approaches of different authors to the determination of the purpose of science are discussed in this work. Author considers definitions of science based on different values. Author explores the correlation between science and value of control over natural objects, as well as cognitive values. Groups of cognitive values available in the literature are given as examples. The definition of science based on the understanding that science is unique complex self-organizing system is suggested. The historical aspect of (...) the problem of motivation scientific activity is considered. Attention to one of the most important values associated with science, the ability to ensure control over nature, is attracted. The provision that the motivation of scientific activity is not related to the value of control over natural objects is proved. It is shown that the leading motivation of the man of science - the need for knowledge of nature. This requirement is a manifestation of the evolutionary mechanism of survival of the species Homo Sapiens. (shrink)

In lieu of an abstract, here is a brief excerpt of the content:Hume's Playful Metaphysics Greg Moses Let us revive the happy times, when Atticus and Cassius the Epicureans, Cicerothe Academic, andBrutus the Stoic, could, all of them, live in unreserved friendship together, and were unsensible to all those distinctions, except so far as they furnished agreeable matter to discourse and conversation.1 This paper argues, firstly, that contrary to appearances, the mature Hume allows for engagementin a certain style ofmetaphysical reasoning (...) in a rather strong sense of'metaphysics'. The proviso is that this be done in a carefully defined playful 'Pyrrhonian' spirit (sees. 1-5). It argues, secondly, that engagementinmetaphysics in such aHumean playful spirit might be available to us and of some value for us nowadays (sees. 6-7). The strategy ofthe argument in sections 1-5 is that the character Philo in Hume'sDialogues ConcerningNaturalReligion engages injust that kind ofmetaphysics that Hume rules out in the Treatise and the Enquiries, but that he does so in such a playful fashion as to be able to get away with it. (1) The word 'metaphysics' is used in the Hume text interpretation part of this paper (sees. 1-5) to refer to enquiry concerning 'ultimate principles/causes'. These ultimate causes are more than just very general constant conjunctions the reality of which is supposed, given habit, on the basis of experience. They are characterized in Hume by the fact that: 1) there is a relations of ideas connection between the 'essence' or 'nature' of whatever it is we are talking about, the soul/mind/human nature, or external bodies, such that 2) could we know the 'nature' or 'essence' we could come to know the principle without consulting experience, and, consequently, 3) they are such that if and when we came to know them we could give a reason for them, beyond our experience of their reality, namely by showing them to follow from the 'essence' or 'nature' ofthe object in question.2 The search for these ultimate springs and causes motivates our researches. "This is our aim in all our studies and reflections" (T 266), tofind the ultimate and operatingprinciple, which resides in the object. We are not satisfied, we would not willingly stop until acquainted with them, or until we are convinced that such a goal is beyond us human Volume XVII Number 2 63 GREG MOSES beings and despair has the same effect on us as enjoyment. Science, in fact, only "staves off our ignorance a little longer" (E 31). The most general and most refined principles we discover are as inexplicable to us as the phenomena themselves are to the vulgar; we have no idea even of what it is we are looking for when we search for them.3 There is thus a kind of natural desire for insight into causes, which natural and moral science does notfully satisfy,4 a sort ofnatural desire for the vision of, if possible, ultimate causes. (2) The attitude ofthe Treatiseand theEnquiries withrespect tothe search for ultimate principles is to stay away from it—as every first year philosophy student knows. This is Hume's position even antecedent to science and enquiry, taken over from the example of the natural philosophers whose empirical method he is adopting. Note that we are using the word 'metaphysics' here as a temporary convenience in a non-Humean sense: for Hume, 'metaphysics' = the more difficult parts of learning, profound reasonings of any kind (cf. E 11). Hume himself engages in such profound reasonings, for a variety of reasons (under five headings in E, sec. 1), including the idea that we "must cultivate true metaphysics with some care, in order to destroy the false and adulterate" (E 12). One of Hume's purposes in book 1 of the Treatise and in the Enquiry Concerning Human Understanding is to turn us away from "specious and agreeable" (T 272) hypotheses and towards those subjects where alone we can expect assurance and conviction (T 272-73), in order to Uve at ease ever after, having rejected, after deliberate enquiry, the most uncertain and disagreeable part of learning (E 12-13). This is accomplished by his investigation of belief inmattersoffactbeyond testimonyofsenses ormemory;thatis, relying on causal reasoning and... (shrink)

This thesis sets out to show that a philosophical reflection on history is, in the strongest possible way, an essential feature of Hume's project of a science of human nature: a philosophical investigation of human nature, for Hume, cannot be successful independently of an understanding of the relation of human beings to their history. Hume intended to criticize traditional metaphysics by referring all knowledge to experience. But it is almost always assumed that Hume means by "experience" the result of an (...) individual's past sense perception or personal observation. Accordingly, Hume's criticism of traditional metaphysics is taken to lead to an individualistic conception of knowledge and human nature. In this thesis I claim that this picture of Hume's "empiricism" is simply wrong. He is not a philosopher who reduces "experience" to the merely private happenings within a personal psychology. On the contrary, Hume has a wider notion of experience, one that includes not only personal observation and memory, but, fundamentally, one that includes implicit knowledge of human history. Experience, so understood, brings about what I term a historical point of view, namely, the point of view of someone who seeks to extend his experience as far as it is possible in order to acquire the capacity to produce more nuanced and impartial judgments in any given practice. It is precisely this historical point of view that enables us to depart from the individualistic perspective that we would otherwise be bound to adopt not only in epistemology but, most significantly, in politics, in social life, in religion, etc. ;Chapter 1 presents the historical background against which Hume elaborates his views of history's role in philosophy. Chapter 2 discusses and criticizes the individualist reading of Hume by showing that he had a satisfactory account of beliefs formed via human testimony. Chapter 3 presents a view of Hume on explanation that underscores his interest in practical and informal explanations as those of history. Chapter 4 provides a discussion of Hume's notion of historical experience in relation both to his theory of perception and to his project of a "science of man.". (shrink)

This is an invited commentary on Richard Rorty's Dewey Lecture, given last year at the University of Chicago Law School. “Pragmatism,” says Rorty, “puts natural science on all fours with politics and art. It is one more source of suggestions about what to do with our lives.” I argue that the truth in pragmatism - that the epistemic norms that help us cope are the ones on which we rely - is obscured by Rorty's promiscuous version of the (...) doctrine, which confuses the criteria for relying on particular epistemic norms (namely, that they work for human purposes) with the content of the norms themselves (most of which make no reference to human purposes, but rather criteria like causal or explanatory power). We need presuppose no Archmiedean standpoint to conclude, as Richard Posner does, that moral inquiry is feeble in a way physics is not; we need only take seriously our best current understanding of the world, how it works, and the epistemic norms that have proven most effective in making sense of it. (shrink)

Many translations have been made from the original Sanskrit of the Yoga Sutras of Patanjali. They have become well loved, well used, and well applied by many in all parts of the world and of all religious beliefs. The Sutras have a power and a timelessness about them which demonstrate the accuracy with which they pinpoint the basic truths of human evolution from subservience to personality clamours to the serene freedom of the soul. Most human problems today originate in selfish (...) desire; the prostitution of the feeling nature to self-centred physical appetites. This is also brought out clearly in the teaching of the Lord Buddha, the treading of the Noble Eight-Fold path providing the only way out of the maze: Right Values; Right Speech; Right Mode of Living; Right Thinking; Right Expression; Right Conduct; Right Effort; Right Rapture or True Happiness. These are attributes of the soul. Patanjali explores exhaustively the means, the techniques and the mental posture which create the connecting thread between the form-centred personality and these stages towards spiritual achievement and soul fusion. The four parts of the book develop: 1. The Problem of Union (51 sutras). 2. sutras). 4. Illumination (34 sutras). Many different training techniques have been available over the centuries, depending on the condition of human consciousness and the phase of spiritual growth to be accomplished. Each Yoga has had its place, fulfilled its function, and become an absorbed part of human experience. In this book the factor of mind in meeting present-day needs is again given prominence as the agent of the soul, and the key to personality release. These Yoga Sutras of Patanjali are based on Raja Yoga, the kingly science of the soul: Through the science of Raja Yoga the mind will be known as the instrument of the soul and the means whereby the brain of the aspirant becomes illuminated and knowledge gained of those matters which concern the realm of the soul. The soul is concerned with the working out of planetary purpose and plan; so again we find that mental training, and the self-achievement of the individual, lead to cooperation and service on a scale far more comprehensive and of far greater evolutionary significance than merely the individual effects on the life of the disciple. venture on the path of union with the soul. When through the removal of hindrances and the purification of the sheaths, the totality of knowledge becomes available, naught further remains for the man to do. (shrink)

Hermeneutics, or interpretation, is concerned with the generation, transmission, and acceptance of meaning within the lifeworld, and was the original method of the human sciences stemming, from F. Schleiermacher and W. Dilthey. The `hermeneutic philosophy' refers mostly to Heidegger. This paper addresses natural science from the perspective of Heidegger's analysis of meaning and interpretation. Its purpose is to incorporate into the philosophy of science those aspects of historicality, culture, and tradition that are absent from the traditional analysis (...) of theory and explanation, to re-orient the current discussion about scientific realism around the hermeneutics of meaning and truth in science, and to establish some relationship between the current philosophy of natural science and hermeneutical philosophy. The paper has particular relevance to the history and social studies of science and technology. (shrink)

In the introduction to his famous book, La Science et l’hypothèse, Poincaré remarks on the necessary role and legitimacy of hypotheses. He establishes a triple classification of hypotheses, dividing them into verifiable, useful, and apparent. However, in chapter 9, entitled ‘Les hypothèses en physique’, he gives a slightly different triadic classification: natural hypotheses, indifferent hypotheses, and real generalizations. The origin of this second classification is a lecture given at the International Congress of Physics, Paris, 1900. What are the (...) similarities and differences between these two classifications? My main purpose is to provide a possible equivalence between the two classifications in order to clarify the role of hypotheses in Poincaré’s epistemology of natural science. The discussion will be based on the two fundamental texts mentioned above and on the contrast between Poincaré’s use of the notion of hypothesis and that of some of his contemporaries. (shrink)

What, if anything, does biological evolution tell us about the nature of religion, ethical values, or even the meaning and purpose of life? The Moral Meaning of Nature sheds new light on these enduring questions by examining the significance of an earlier—and unjustly neglected—discussion of Darwin in late nineteenth-century Germany. We start with Friedrich Nietzsche, whose writings staged one of the first confrontations with the Christian tradition using the resources of Darwinian thought. The lebensphilosophie, or “life-philosophy,” that arose from (...) his engagement with evolutionary ideas drew responses from other influential thinkers, including Franz Overbeck, Georg Simmel, and Heinrich Rickert. These critics all offered cogent challenges to Nietzsche’s appropriation of the newly transforming biological sciences, his negotiation between science and religion, and his interpretation of the implications of Darwinian thought. They also each proposed alternative ways of making sense of Nietzsche’s unique question concerning the meaning of biological evolution “for life.” At the heart of the discussion were debates about the relation of facts and values, the place of divine purpose in the understanding of nonhuman and human agency, the concept of life, and the question of whether the sciences could offer resources to satisfy the human urge to discover sources of value in biological processes. The Moral Meaning of Nature focuses on the historical background of these questions, exposing the complex ways in which they recur in contemporary philosophical debate. (shrink)

The rise of mechanistic science in the seventeenth century helped give rise to a heated debate about whether teleology—the appearance of purposive activity in life and in mind—could be naturalized. At issue here were both what is meant by “teleology” as well as what is meant “nature”. I shall examine a specific episode in the history of this debate in the twentieth century with the rise of cybernetics: the science of seemingly “self-controlled” systems. Against cybernetics, Hans Jonas argued that cybernetics (...) failed as a naturalistic theory of teleology and that the reality of teleology is grounded in phenomenology, not in scientific explanations. I shall argue that Jonas was correct to criticize cybernetics but that contemporary work in biological organization succeeds where cybernetics failed. I will then turn to contemporary uses of Jonas’s phenomenology in enactivism and argue that Jonas’s phenomenology should be avoided by enactivism as a scientific research program, but that it remains open whether enactivism as a philosophy of nature should also avoid Jonas. (shrink)

In lieu of an abstract, here is a brief excerpt of the content:The Argumentative Structure of Kant’s Metaphysical Foundations Of Natural ScienceEric Watkinsone of kant’s most fundamental aims is to justify Newtonian science. However, providing a detailed explanation of even the main structure of his argument (not to mention the specific arguments that fill out this structure) is not a trivial enterprise. While it is clear that Kant’s Critique of Pure Reason (1781), his Metaphysical Foundations of Natural Science (...) (1786), and his unpublished (and incomplete) Opus postumum should in some way constitute the core of this justification, it is less clear how each of these works does so in detail. In this paper I shall first argue that the standard view of the relationship between the Critique of Pure Reason and the Metaphysical Foundations of Natural Science (hereafter simply Metaphysical Foundations) is mistaken. I shall then present my own interpretation of how the Metaphysical Foundations contributes to the justification of Newtonian science. Finally, I shall conclude by considering an important interpretation of the argument of the Metaphysical Foundations developed by Michael Friedman. However, it is first necessary to present briefly Kant’s conception of science (in particular what conditions a body of knowledge must satisfy for Kant in order to be considered science proper) as well as Kant’s own understanding of the relevant differences between his projects in the first Critique, the Metaphysical Foundations, and the Opus postumum.Kant’s conception of science is rather strict if measured by contemporary standards. For in the preface to the Metaphysical Foundations Kant establishes three substantive conditions that a body of knowledge must satisfy in order to be considered science proper.1 (1) It must not consist in empirical principles, [End Page 567] but rather must be obtained solely from pure, a priori principles;2 (2) It must be apodictically certain;3 (3)4 It must be a systematically ordered whole (which means that its various propositions must be related as, for example, antecedents and consequents).5 After stating these conditions, Kant then argues that all natural science proper requires a pure part upon which its apodictic certainty is based. In other words, satisfaction of the first condition immediately implies satisfaction of the second condition as well.6 Accordingly, these three conditions (and the first one in particular) imply that natural science proper requires (or rather presupposes) a justification by something distinct from it that Kant calls a metaphysics of nature.7 But what exactly does a metaphysics of nature encompass? Kant distinguishes two different parts of the metaphysics of nature: a transcendental part and a special part. A metaphysics of nature [End Page 568] is transcendental insofar as it concerns “the laws that make the concept of nature in general possible, even without relation to any determinate object of experience, and [insofar as it is] thus indeterminate with respect to the nature of this or that thing in the sensible world,” whereas a metaphysics of nature is special to the extent that “it is concerned with a special nature of this or that kind of thing of which an empirical concept is given, but so that except for what lies in this concept no other empirical principle is used for knowledge thereof.”8 In short, a transcendental metaphysics, revealing how experience in general is possible, is not supposed to presuppose an empirical concept, whereas a special metaphysics does make such an assumption insofar as it is concerned with the special natures of things.How do the three works cited above relate to Kant’s distinction between a transcendental and a special metaphysics of nature? In the preface to the Metaphysical Foundations Kant clearly indicates that he intends the Metaphysical Foundations to constitute the special metaphysics of nature. Although he does not explicitly refer to the first Critique in the preface, it is also relatively clear that he sees it (or at least the ‘System of Pure Reason’ that Kant foresees as following upon it and as incorporating its fundamental results)9 as constituting [End Page 569] the transcendental part of a metaphysics of nature.10 The Principles of Pure Understanding (‘Grundsätze des reinen Verstandes’) in the Transcendental Analytic argue for what could naturally be described as “laws... (shrink)

Historical studies convincingly demonstrate that the knowledge process [Erkenntnis] in natural science consists of the gradual adaptation of the thoughts to the facts. This adaptation happens through happy circumstances, which increasingly reveal the more general similarities and subtle differences of the facts. By this, the precision of the representation of the facts by the thoughts grows, so that the latter finally become an image of the former, which for certain intellectual purposes may completely substitute for them. The one who (...) admits this sober view of the meaning of natural science will assign to natural science teaching no other purpose, but to promote the aspired adaptation of thoughts with highest economy of work on shortcuts, by artificially bringing about those favorable circumstances avoiding the unfavorable historical coincidences and delays.One should in teaching first and foremost proceed psychologically; only secondarily and as much logically, as this is enabled through the psychological preparation so that it becomes a need. New concepts, theories, hypotheses, solutions of problems should only be introduced, when the need for this is felt in order to be able to master the topic. For each sentence, which appears during teaching, clarity and explicitness, but in general not indefeasibility from the point of view of the goal of teaching, should be required. (shrink)

Any part of the world can be viewed and modelled in terms of its chosen qualitative and/or quantitative properties, OR its structure. The former approach has been used by nearly the whole of ‘human intellectual endeavor’, i.e conventional science of physics, the arts etc. Development of the latter or the ‘systemic view’ is the subject matter of the current work. The Purpose of Change is Problem Solving suggests that the ‘structural view’ is empirical, pervasive throughout experience and as such (...) results in a single domain as opposed to conventional science which consists of many domains like mechanics, electricity etc. Thus, a unique approach is required which is based on ‘general principles of systems’ translated into operational form by the symbolism of processed natural language called ‘linguistic modelling of scenarios’ which can carry mathematics and uncertainties. To model scenarios with complex structure, a description or story in natural language is expressed in terms of homogenous language of one – and two – place sentences, the ‘elementary constituents’ of which complex structures can be constructed [like a variety of buildings from bricks]. To correspond to the single domain, based on the logic of causation, a single scheme of ‘Management/producers – Product – User/consumer’ is proposed which is immediately applicable to structuring scenarios and guides their detailed linguistic modelling or design. The approach, subject to debate, can have significant impact on society and education, especially that of engineering which lacks a ‘comprehensive theory of structure’ of problematic scenarios. (shrink)

In his 1785-review of the Ideen zur Philosophie der Geschichte der Menschheit, Kant objects to Herder's conception of nature as being imbued with active forces. This attack is usually evaluated against the background of Kant's critical project and his epistemological concern to caution against the “metaphysical excess” of attributing immanent properties to matter. In this paper I explore a slightly different reading by investigating Kant's pre-critical account of creation and generation. The aim of this is to show that Kant's struggle (...) with the forces of matter has a long history and revolves around one central problem: that of how to distinguish between the non-purposive forces of nature and the intentional powers of the mind. Given this history, the epistemic stricture that Kant's critical project imposes on him no longer appears to be the primary reason for his attack on Herder. It merely aggravates a problem that Kant has been battling with since his earliest writings. (shrink)

It has been widely believed since the nineteenth century that modern science provides a serious challenge to religion, but less agreement as to the reason. One main complication is that whenever there has been broad consensus for a scientific theory that challenges traditional religious doctrines, one finds religious believers endorsing the theory or even formulating it. As a result, atheists who argue for the incompatibility of science and religion often go beyond the religious implications of individual scientific theories, arguing that (...) the sciences taken together provide a comprehensive challenge to religious belief. Scientific theories, on this view, can be integrated to form a general vision of humans and our place in nature, one that excludes the existence of supernatural phenomena to which many religious traditions refer. The most common name given to this general vision is the scientific worldview. The purpose of my paper is to argue that the relation of a worldview to science is more complex and ambiguous than this position allows, drawing upon recent work in the history and philosophy of science. While there are other ways to complicate the picture, this paper will focus on differing views that scientists and philosophers have on the proper scope and limits of scientific inquiry. I will identify two different types of science—Baconian and Cartesian—that have different ambitions with respect to scientific theories, and thus different answers about the possibility of a scientific worldview. The paper will conclude by showing how their differing intuitions about scientific inquiry are evident in contemporary debates about reductionism, drawing upon the work of two physicists, Steven Weinberg and John Polkinghorne. History is more complex than this simple schema allows, of course, but these types provide a useful first approximation into the ambiguities of modern science. (shrink)

One of the most unsettling problems in the history of philosophy examines how mathematics can be used to adequately represent the world. An influential thesis, stated by Eugene Wigner in his paper entitled "The Unreasonable Effectiveness of Mathematics in the Natural Sciences," claims that "the miracle of the appropriateness of the language of mathematics for the formulation of the laws of physics is a wonderful gift which we neither understand nor deserve." Contrary to this view, this thesis delineates (...) and implements a strategy to show that the applicability of mathematics is very reasonable indeed. I distinguish three forms of the problem of the applicability of mathematics, and focus on one I call the problem of uncanny accuracy: Given that the construction and manipulation of mathematical representations is pervaded by uncertainty, error, approximation, and idealization, how can their apparently uncanny accuracy be explained? I argue that this question has found no satisfactory answer because our rational reconstruction of scientific practice has not involved tools rich enough to capture the logic of mathematical modelling. Thus, I characterize a general schema of mathematical analysis of real systems, focusing on the selection of modelling assumptions, on the construction of model equations, and on the extraction of information, in order to address contextually determinate questions on some behaviour of interest. A concept of selective accuracy is developed to explain the way in which qualitative and quantitative solutions should be utilized to understand systems. The qualitative methods rely on asymptotic methods and on sensitivity analysis, whereas the quantitative methods are best understood using backward error analysis. The basic underpinning of this perspective is readily understandable across scientific fields, and it thereby provides a view of mathematical tractability readily interpretable in the broader context of mathematical modelling. In addition, this perspective is used to discuss the nature of theories, the role of scaling, and the epistemological and semantic aspects of experimentation. In conclusion, we argue for a method of local and global conceptual analysis that goes beyond the reach of the tools standardly used to capture the logic of science; on their basis, the applicability of mathematics finds itself demystified. (shrink)

In various essays, Paul Churchland explores the relevance of studies in cognitive science to issues in ethics. What emerges is a kind of ethical naturalism that has two components. The first component is a descriptive‐genealogical one whose purpose is to explain how people come to have their ethical beliefs. The second component is a normative one whose purpose is to explain why some values are better than other values. Given this distinction, the problem of integrating ethics with (...) beliefs about the world is a consequence of the traditional view that it is possible to naturalize descriptive‐genealogical ethics but not normative ethics. With this distinction as background, I critically examine Churchland's exploration of cognitive science's contribution to our understanding of the values and purposes that should direct our lives. The conclusion is twofold. First, using concepts from the American pragmatists, I argue that, pace Churchland, it is possible to bridge the descriptive‐normative gap in order to articulate an ethical naturalism that addresses the so‐called naturalistic fallacy but is not committed to an unpalatable relativism. Second, I argue that the sort of ethical naturalism that emerges has affinities to the postmodern ethics of Jean‐François Lyotard. (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)

Climatology is a paradigmatic complex systems science. Understanding the global climate involves tackling problems in physics, chemistry, economics, and many other disciplines. I argue that complex systems like the global climate are characterized by certain dynamical features that explain how those systems change over time. A complex system's dynamics are shaped by the interaction of many different components operating at many different temporal and spatial scales. Examining the multidisciplinary and holistic methods of climatology can help us better understand the nature (...) of complex systems in general. -/- Questions surrounding climate science can be divided into three rough categories: foundational, methodological, and evaluative questions. "How do we know that we can trust science?" is a paradigmatic foundational question (and a surprisingly difficult one to answer). Because the global climate is so complex, questions like "what makes a system complex?" also fall into this category. There are a number of existing definitions of `complexity,' and while all of them capture some aspects of what makes intuitively complex systems distinctive, none is entirely satisfactory. Most existing accounts of complexity have been developed to work with information-theoretic objects (signals, for instance) rather than the physical and social systems studied by scientists. -/- Dynamical complexity, a concept articulated in detail in the first third of the dissertation, is designed to bridge the gap between the mathematics of contemporary complexity theory (in particular the formalism of "effective complexity" developed by Gell-Mann and Lloyd [2003]) and a more general account of the structure of science generally. Dynamical complexity provides a physical interpretation of the formal tools of mathematical complexity theory, and thus can be used as a framework for thinking about general problems in the philosophy of science, including theories, explanation, and lawhood. -/- Methodological questions include questions about how climate science constructs its models, on what basis we trust those models, and how we might improve those models. In order to answer questions about climate modeling, it's important to understand what climate models look like and how they are constructed. Climate model families are significantly more diverse than are the model families of most other sciences (even sciences that study other complex systems). Existing climate models range from basic models that can be solved on paper to staggeringly complicated models that can only be analyzed using the most advanced supercomputers in the world. I introduce some of the central concepts in climatology by demonstrating how one of the most basic climate models might be constructed. I begin with the assumption that the Earth is a simple featureless blackbody which receives energy from the sun and releases it into space, and show how to model that assumption formally. I then gradually add other factors (e.g. albedo and the greenhouse effect) to the model, and show how each addition brings the model's prediction closer to agreement with observation. After constructing this basic model, I describe the so-called "complexity hierarchy" of the rest of climate models, and argue that the sense of "complexity" used in the climate modeling community is related to dynamical complexity. -/- With a clear understanding of the basics of climate modeling in hand, I then argue that foundational issues discussed early in the dissertation suggest that computation plays an irrevocably central role in climate modeling. "Science by simulation" is essential given the complexity of the global climate, but features of the climate system--the presence of non-linearities, feedback loops, and chaotic dynamics--put principled limits on the effectiveness of computational models. This tension is at the root of the staggering pluralism of the climate model hierarchy, and suggests that such pluralism is here to stay, rather than an artifact of our ignorance. Rather than attempting to converge on a single "best fit" climate model, we ought to embrace the diversity of climate models, and view each as a specialized tool designed to predict and explain a rather narrow range of phenomena. Understanding the climate system as a whole requires examining a number of different models, and correlating their outputs. This is the most significant methodological challenge of climatology. -/- Climatology's role contemporary political discourse raises an unusually high number of evaluative questions for a physical science. The two leading approaches to crafting policy surrounding climate change center on mitigation (i.e. stopping the changes from occurring) and adaptation (making post hoc changes to ameliorate the harm caused by those changes). Crafting an effective socio-political response to the threat of anthropogenic climate change, however, requires us to integrate multiple perspectives and values: the proper response will be just as diverse and pluralistic as the climate models themselves, and will incorporate aspects of both approaches. I conclude by offering some concrete recommendations about how to integrate this value pluralism into our socio-political decision making framework. (shrink)

In this paper, I attempt to develop the account of intellectual virtues offered by Aristotle and St. Thomas in a way which recognizes faith as a good intellectual habit. I go on to argue that, as a practical matter, this virtue is needed not only in theology, where it provides the basis of further intellectual work, but also in the natural sciences, where it is required given the complexity of the subject matter and the cooperative nature of (...) the enterprise. (shrink)

So far the account given has favoured champions of the sciences. At this stage, the book acknowledges an insight of their critics, proposing that there is no privileged language for talking about nature. Scientific language, it is suggested, develops in response to human purposes.

The 1920s and 30s were key decades for the history of American social science. The success of such quantitative disciplines as economics and psychology during World War I forced social scientists to reexamine their methods and practices and to consider recasting their field as a more objective science separated from its historical foundation in social reform. The debate that ensued, fiercely conducted in books, articles, correspondence, and even presidential addresses, made its way into every aspect of social science thought of (...) the period and is the subject of this book. Mark C. Smith first provides a historical overview of the controversy over the nature and future of the social sciences in early twentieth-century America and, then through a series of intellectual biographies, offers an intensive study of the work and lives of major figures who participated in this debate. Using an extensive range of materials, from published sources to manuscript collections, Smith examines "objectivists"--economist Wesley Mitchell and political scientist Charles Merriam--and the more "purposive thinkers"--historian Charles Beard, sociologist Robert Lynd, and political scientist and neo-Freudian Harold Lasswell. He shows how the debate over objectivity and social purpose was central to their professional and personal lives as well as to an understanding of American social science between the two world wars. These biographies bring to vivid life a contentious moment in American intellectual history and reveal its significance in the shaping of social science in this country. (shrink)

In this article, the meaning of concept of sharʿī science gained in the conception of education, which was established in Islamic civilization, was studied. The main problem of the research is to evaluate the idea of education in Islamic Civilization, which is closely related to the concept of sharʿī science, with a false perception that it consists entirely of religious education. The beginning of Islamic Civilization is traced back to descent of the Qur'an. The conception of education that started to (...) emerge after this period is based on the understanding of the Qur'an and hadiths at first. In later times, a wide variety of fields, such as language, literature, logic, wisdom, riyāzat, nature, and astronomy, have been included in the concept of education to encompass the whole existence of the entity. In the following centuries, these fields, which were included in the course curriculum of the madrasahs, were examined in detail in the works of classification of sciences. Therefore, the false perception needs to be reconsidered. For this reason, the article focuses on how the concept of sharʿī science is defined. Historical data analysis method was used to solve the problem. The claim of the article is that the concept of shar′i science has wide perspective to cover the world of meaning, mind and essence of man. As a result, this article, it was determined that the concept of sharʿī science has a meaning to cover the majority of information fields that are subject to instruction in our educational conception.Summary: The formation of the conception of education in Islamic civilization has emerged in the long term through a scientific process. During this time, a rich curriculum on the concept of education was shaped. The sciences that form the curriculum have been diversified in later periods compared to the early periods of Islam. With the advent of the different sciences, which provided this diversification and which were not at first, all the existing sciences were classified according to different perspectives by the ulama (muslim scholars). In the classifications, which have important contributions to the conception of education, the sciences were tried to be introduced and their position in the education life was tried to be explained. The sciences classified have not been dealt with against each other but rather to complement each other in different ways. The distinction of sciences in classification; different approaches such as linguistically, religious, secular, mental, transportation, philosophical and sharʿī have been developed.The concept of sharʿī science, which can be expressed as a general definition of the sciences, is given in almost all of the works related to the classification of sciences, even under the name or different titles. When we look at the classification, it is seen that sharʿī sciences are handled in four different approaches. As the first approach, the sharʿī sciences are among the main elements of main division in the classification. Here, the sharʿī sciences, in general, with the linguistic sciences and mental sciences were included in the top title. In the second approach, there are works in their classification that do not include the sharʿī sciences and the distinction between it. In addition, these works collect the sciences within this scope under other scientific compositions or other names. In the third approach, among the works that give information about the general of the sciences, there are those who mentioned all together without classifying these sciences and others. In the last approach, the sharʿī sciences are seen as the upper description of the knowledge fields that are included in the teaching, which covers the majority of the other sciences except for the linguistic sciences.The approaches presented in the classification of sciences indicate the diversity of the issue. In order to have better understanding of the issue, it is useful to look closely at the meaning of the concept of sharʿī sciences. At this point, three definitions of 2nd, 4th and 12th centuries are given respectively. Firstly, for Jābir b. Hayyān sharʿī science is the most useful politics in terms of religion and the world, because it contains the benefits of the world's interests after death.Secondly, al-Ghazali (d. 505/1111) describes the sharʿī science as the knowledge learned from Şārī ʿ and prophets, but not by the experience and hearing. According to this, the sharʿī science is defined as the knowledge of the sunnah that only gives information about revelation. The information fields outside this definition are also considered as the sciences, which are instrumental in reaching to sharʿī science.The perspective of the third definition of sharʿī science is given by Saçaklızāde (d. 1145/1732). He lists the three definitions made before the time of his life from the specific (hās) to the general (ām). Saçaklızāde gave the aforementioned definition of al-Ghazali in the first sense of the concept of sharʿī science. He points out that the meaning given here is allocated. The second definition belongs to Molla Husraw (d. 885/1480). According to him, the sharʿī science is the sciences that can be reached through the sciences of the Şārīʿ. In other words, it is the sciences that are not used except for obtaining the sciences obtained from Şārīʿ itself. This meaning is a bit more extensive since there are no records as described in al-Ghazali. This definition is also included in the sciences benefited from it. Although it is not the first, there is usūl-i fiqh (Islamic legal theory) within this meaning.In the third definition, sharʿī science is the sciences that form the basis for things arising from Şārīʿ or originating from Şārīʿ. This definition belongs to Ibn Hajar el-Haytamī. He did not consider the partial allocation of the second meaning as given above, and included all the instrument sciences in the definition of sharʿī science. Based on the definitions he gave, three sharʿī science approaches made before the time he lived were listed from specific to general. Thus, in a sense, he depicts the general shape of the sharʿī science perspective. With the approach to generalization, we can say that a sharʿī science perspective that encompasses the majority of the fields involved in education is developing. In the third meaning of sharʿī science, it is seen that the majority of the fields of knowledge in education and training are gathered under one roof. The most important factor gathering the sciences together is the effort to understand the purpose of Şārīʿ, who owns the whole area of existence. The fields of knowledge and sciences needed to achieve this aim can be included in the definition of sharʿī science. The effort to understand the purpose of Şārīʿ is also at the center of the idea of Islamic education. Since there are various dimensions of being, each step taken to understand and learn them is directed in a way to Şārīʿ itself. Whether it is language and literary sciences or other sciences, such as mathematics, physics and philosophies, the aim is to recognize and understand Şārīʿ for the collection of things that fall within the scope of all educational activities. With sharʿī science approach, teaching the whole of the area of existence owned by Allah is possible within the concept of education. In the works written for the education curriculum, it is seen that the perspective covering the majority of the sciences in the definition of third sharʿī science is preserved. First of all, the meaning integrity of the sharʿī science concept has been determined. In the definitions of three different periods given here, it is seen that the approach to the sciences, which are the subject of instruction in education is not exclusive but inclusive. Especially because of the width in the third sense, the majority of the instrument sciences and mental science fields in the curriculum are included in the definition of sharʿī science. (shrink)

The purpose of the article is to evaluate the ethical and political conclusions that Ulrich Beck draws from his account of ‘civilization risks’. I have argued that the categories of ‘life’, ‘the organic’, and the ‘technological’ which are presented in Risk Society, presuppose a certain metaphysics of ‘natural’ human identity; and that it is the inscription of this identity in the politics of risk administration which opens the possibility of an absolutely legitimized regulation of nature, humanity, and society. (...) Thus, in order to evaluate the ‘risk’ entailed in the ethical and political strictures of Beck's ‘world risk society’, I have had recourse to the expositions of time, presence, identity and technology which Derrida has given in Of Grammatology and Specters of Marx. It is through these expositions that I have tried to work through the idea of an ecological politics that would remain sensitive to the events of difference and alterity precipitated by its own ‘cosmopolitan’ interventions. (shrink)

Descartes was disappointed with most of the Objections collected to accompany the Meditations in 1641, but he took a particularly dim view of the Third Set. ‘I am surprised that I have found not one valid argument in these objections,’ he wrote, close to the end of a series of curt and dismissive replies. The author of the objections was Thomas Hobbes. There was one other unfriendly exchange between Descartes and Hobbes in 1641. Descartes received through Mersenne some letters criticizing (...) theses in the Dioptrics, one of the Essays published with the Discourse on Method in 1637. Mersenne did not name Hobbes as the writer of the letters, attributing them to an unspecified Englishman, and it seems that Descartes never connected the critic of his optics with the author of the objections to his metaphysics. Nevertheless, Descartes responded with some hostility to the letters, angrily rebutting some points about refraction and charging that others had been appropriated from his own writings. Insinuating that the English correspondent was dishonest, Descartes decided to have no more to do with him. A meeting between the two men did take place in 1648 at a dinner given by the Marquis of Newcastle, but even on this occasion they did not see eye to eye, getting into an argument about the nature of hardness. (shrink)

The Bampton Lectures are named after John Bampton, their founder, a Canon of Salisbury who died a little over two centuries ago and left £120 per annum to the University of Oxford as endowment of eight “divinity-lecture-sermons” to be delivered each year “to confirm and establish the Christian Faith, and to confute all heretics and schismatics.” No person was to preach the sermons unless he had at least a Master’s Degree of Oxford or Cambridge. It is one of the ironies (...) of history that the lectures are now given by heretics. But what heretic could be more agreeable to members of the true Church than Dr. Mascall, the Bampton Lecturer for 1956? The discourses were never meant to be popular addresses, but have always been valuable and learned expositions of Christian teaching. Without any shadow of doubt the high standard of the past is maintained in the present volume. (shrink)

This chapter is going to address some issues about information science (IS) or library and information science (LIS) as an academic field. The main purpose is to set up a number of interrelated dimensions or levels, which are perhaps often taken for granted, but are here considered to be in need for systematic consideration. Each level is discussed in a separate section: 2. Is LIS an academic discipline? 3. What are the various names given to the field? How (...) do they reflect underlying conceptions of the field? 4. What is the aim of LIS? What are we trying to achieve? 5. What are the core concepts of information science? 6. What are the most important metatheories and research traditions in the LIS? (shrink)

Decision makers addressing the ecological crisis face the challenge of considering complex ecosystems in their socioeconomic decisions. Complementary to ecological sciences, other scientific frameworks, grouped under the umbrella term environmental sciences, offer decision makers the opportunity to pursue sustainable paths. Because the environmental sciences are drawn from different branches of science, environmental ethics must go beyond the legacy of ecology and the life sciences to describe the contribution of scientific knowledge to addressing the ecological crisis. In (...) this regard, I analyze and compare three environmental sciences based on their seminal articles: Conservation Biology, Sustainability Science, and Sustainability Economics. My analysis shows that conservation biology and sustainability economics share strong similarities despite their different disciplinary backgrounds (life _versus_ social sciences). Both seek to contrast a biocentric and an anthropocentric perspective. The goal of sustainability is therefore understood as a balance that must be found between these two perspectives. If the issue of balancing human and non-human interests is still relevant to sustainable science, it is more likely to take place in an ecocentric perspective based on alternative ontological and normative prescriptions. Based on this analysis, I distinguish between ‘proscriptive value-based’ scientific work that cannot be used for policy advice but is flexible to different value systems, and ‘prescriptive value-based’ scientific work that can be used for policy advice but is fixed within a given value system. Conflicting recommendations from environmental scientists therefore result from the coexistence of multiple ‘prescriptive value-based’ scientific approaches based on different conceptions of the relationship between humans and nature. (shrink)

In lieu of an abstract, here is a brief excerpt of the content:“It’s not true, but I believe it”: Discussions on jettatura in Naples between the End of the Eighteenth and Beginning of the Nineteenth CenturiesFrancesco Paolo de CegliaIntroduction: What is Jettatura?Non èvero...ma ci credo (“It’s not true... but I believe it”) is the title of a comedy by the Italian actor and playwright, Peppino De Filippo, younger brother of the more famous Eduardo, which was staged for the first time (...) in 1942. The narrated events take place in the twentieth century and concern Gervasio Savastano, a Neapolitan businessman who is tormented by the fear of jettatura. The character, victim of grotesque events, first sacks a worker, believing him to be a jettatore, and then hires another, who is a hunchback and so should bring him good luck. In the end, however, it is discovered that the presumed jettatore has never harmed anyone and that the hunchback is not what he seems: he has stuffed his jacket in order to enter into the good graces of the gullible businessman and marry his daughter, with whom he has planned a con trick. The “lucky” events ascribed to his presence can therefore be considered casual. The epilogue? In keeping with the logic of compromise, typical of the brothers De Filippo’s theater, even though the character is rationally convinced of the unfounded nature of his beliefs, he remains adamant: “It’s not true, but I believe it” in other words.1 [End Page 75]“Where I come from, jettatura rules,” wrote the journalist and scriptwriter Giuseppe Marotta in 1947. Indeed, it is still a part of popular Neapolitan culture today.2 Often confused with similar beliefs, such as fascination (fascino) and the evil eye (malocchio), jettatura assumed its present form between the end of the eighteenth and beginning of the nineteenth century, at a time when a polite debate on its nature was taking shape in the city. In this period, the epistemological pluralism animating the discussions was translated into a variety of interpretative hypotheses and literary genres, in which grotesque atmospheres and spirited quips also found room, all perfectly in line with what could be considered the Weltanschauung of Savastano. It is the purpose of this article to examine these discussions, which even spread the term abroad and, with it, the “local color” of the concept.Nineteenth-century European writers on jettatura knew the Neapolitan authors well, and either quoted them explicitly or associated them with characters whose names were a deformation of real people’s: for example, Volitta for Valletta (Stendhal), don Jo (Stendhal) or Ojori (Dumas) for De Jorio. They explained that jettatura corresponded to the more familiar evil eye, but they left the term in Italian, as if to underline the fact that it was untranslatable.Is jettatura a mere anthropological issue, linked to a “primitive” culture, in the face of which official science would remain refractory? A belief that could not be exported or shared by those educated in more “highly developed” contexts? Well, in part, yes. Nevertheless, in the 1840s there was a visitor to Naples who expressed himself in the following terms: “When a foreigner arrives in Naples, at first he laughs at jettatura, then, little by little, he becomes troubled by it, and finally, after a stay of three months, you will see him covered in horns and with his right hand forever clenched [to ward off evil].”3 [End Page 76]So wrote the novelist Alexandre Dumas, père, one of the many travellers who, after having completed the Grand Tour of southern Italy, decided to describe its picturesque scenes and backward customs.4 Creating a veritable topos of travel literature, in the same period the philologist Karl August Mayer commented, “often foreigners let themselves be influenced” by local “superstitions.”5 Indeed many of them were captivated by these Neapolitan beliefs, despite their desire to remain objective and detached; and so they were “converted,” and driven to seek scientific explanations, often after meeting “a Real Jettatore,” whose image had nothing in common with the exotic fantasies of “a French Novelist’s Idea of Jettatore.”6Actually, Dumas and Mayer probably exaggerated somewhat in order to make their descriptions more... (shrink)

In lieu of an abstract, here is a brief excerpt of the content:Philosophy and Rhetoric 33.1 (2000) 59-73 [Access article in PDF] Thomas Hobbes: Telling the Story of the Science of Politics Anat Biletzki Science and storytelling First, the traditional commonplaces: Science does not tell stories. Disciplines purporting to be sciences eschew their storytelling aspects in favor of axiomatic, deductive, demonstrative, or whatnot essentials of science. Those deeming the story itself essential give up (happily or less willingly) the label (...) of science and locate themselves under other institutionalized labels such as Humanities. 1 Then there are the disciplines that wobble on the fence, desiring, for various reasons that are more readily analyzed by historical sociologists, the epithet of Science, yet not always achieving such recognition. Chief players in this game are history, psychology, sociology, anthropology, and political science. And if my rendition of this conflict between pretensions and performance seem blatantly pejorative, let me rephrase it: their own practitioners--historians, psychologists, sociologists, anthropologists, and political scientists--believe the issue of their scientific status a problem of no small import. It is, indeed, the question "Are we a science?" that figures in the most fundamental debates concerning the purpose, essence, and methodology of these disciplines.By use of a case study, I will try to support a seemingly conciliatory thesis: social sciences are, by definition and therefore of necessity, on the fence. On one side of the fence lies Science, the monolithic framework that enslaves its method to a grand purpose--knowledge of reality. On the other lies Humanism, a far less easily defined area about which I would hesitate to use the word framework, but through which one meets a no-less-grandiose focus--knowledge of the human. Why then does it seem natural to foster storytelling on the humanistic side of the fence? Or, alternatively, one can ask about the "why not" of narrative in the sciences.Narrative is storytelling; and stories are about heroes; and heroes conduct their actions in a place through a time. So these three building blocks-- [End Page 59] hero, time, and place--point to a pattern of knowledge that, it seems obvious, cannot, and definitely should not, belong to science in its idealized form. There is, of course, a stronger thesis deriving from the intricacies in (post?)modern discussions: that even the exact and natural sciences use narrative while still remaining sciences. This idea--that science does countenance narrative and, indeed, may even use it beneficially--thereby becomes forceful, since science, with its universalistic airs, pretends to ignore heroes in specific times and places.What of the social sciences? Their claim to science is based on that same universalistic end coupled with an attempt to develop a methodology to fit that end. The rub lies in the subject matter of the social sciences, the human being and society. A strictly positivistic view of such subject matter, or even a generally scientific one, must abstract from any and all "humanistic" traits of the human being and society and objectively treat them on a par with any other "neutral" (some might say, even material) object of research. My weak thesis merely claims that such abstraction is inherently impossible and, furthermore, that an attempt at such abstraction waylays the ultimate end of these "sciences." 2 Yet, such a thesis must contribute more than it eliminates. If the social sciences cannot live up to the original scientific ideal of one side of the fence, and if their product can be valued as more than (or at least different from) a mere story on the other side, a more fruitful characterization than just "sitting on the fence" is called for. It is here that narrative makes its essential contribution: narrative is that pattern of knowledge which can encompass the social sciences, given their necessary turn to the human being. Looked at from the receiving end, the social sciences have no option but to turn to narrative in order to buttress their scientific ideal of explanation. The phenomena they claim to explain are human and social phenomena and, as such, cannot be distanced from narrative. 3I shall try to illustrate my... (shrink)

There is quite a bit of disagreement in cognitive science regarding the role that consciousness and control play in explanations of how people do what they do. The purpose of the present paper is to do the following: (1) examine the theoretical choice points that have lead theorists to conflicting positions, (2) examine the philosophical and empirical problems different theories encounter as they address the issue of conscious agency, and (3) provide an integrative framework (Wild Systems Theory) that addresses (...) these problems and potentially naturalizes conscious agency. It does so by grounding conscious and control in the notion of self-sustaining energy-transformation systems (i.e., living systems), versus computational or self- organizing systems, as is the case in information processing theory and dynamical systems theory, respectively. Given its assertion that content (and consciousness) emerges in self-sustaining systems, Wild Systems Theory may also provide a sound theoretical basis for a science of consciousness in general. (shrink)

In lieu of an abstract, here is a brief excerpt of the content:BOOK REVIEWS Substance and Modern Science. By R. J. CONNELL. Houston: Center for Thomistic Studies, U. of St. Thomas (Distributed by U. of Notre Dame Press), 1988. 280 pp., Bibliography, Index. $30 (cloth), $17 (paper) • This is a work in the philosophy of nature, more Aristotelean than Thomistic in orientation. The author's particular interest is in the existence, nature, and multiplicity of natural substances. The text is (...) divided into a Preface, 23 relatively short chapters, and an Epilogue emphasizing the importance of " substance " as a natural rather than as a metaphysical consideration (p. 236; cf. pp. 33-34). The metaphysical consideration of substance can only come later, after the existence of non-physical entities has been established. There is also an Appendix summarizing Aristotle's three principles of change. In the Appendix he states: To summarize, then, we may say that coming to he requires three dis· tinct principles: subject, term, and privation. Stated in the words we employed in the earlier chapters, coming to be requires a material, a structure, and a privation of the structure that is acquired (p. 242). The author's intention is to present the position of Aristotle in contemporary dress, using Aquinas's commentary on the Physics as an aid in understanding Aristotle (p. v). Near the end of the work he states, " But apart from the difference in language, the position we have defended here was that of not only Aquinas but Aristotle before him" (p. 210). Given the widespread acceptance today, largely under the influence of modern science, of mechanistic, reductionistic, and even monistic, doctrines concerning nature, the question of whether or not Nature is an orderly collection of natures is an extremely important one. Is reality divided into a multiplicity of separate and semi-independent substance-things or is it only a collection of insubstantial property-things? Part I, chapters 1 to 5, discusses the reality of substance. Everyone admits that properties, that is, the various observed traits which qualify things, are real. The real is " that which exists; " and for the purpose of distinguishing intramental from extramental reality we can add "Outside the mind and imagination" (p. 11). A property is defined as "that which exists in another as in a subject" (p. 12). The "as in a subject" part is important because " One reality can be in another 331 BOOK REVIEWS in many ways" (loc. cit.) and it is significant that a prope.rty is in. a subject in a certain way, namely, as dependent on the sub1ect for its existence. A substance is defined as " that which exists in itself (or by itself) and not in another as in a subject" (p. 13). As an example of what a substance is, we ourselves are the most obvious cases of such rela· tively independent things. I recognize myself as the stable foundation for properties. However, being a substance does not mean having an unqualified permanence and independence. Substances are not absolute. Neither are they necessarily absolutely simple and uncomposed. Although a truly elementary particle is undoubtedly a substance, from what we know so far, any statement that claims substance is necessarily simple is gratuitous; whether this is or is not so is one of the principal issues to be considered in this book (p. 14). The main villain in modern philosophy when it comes to an attempted elimination of substance is David Hume. Hume's position, however, which attempted to dissolve all substantial unities into mere bundles of properties somehow existing all on their own, and which formed the basis for later process philosophies, cannot stand up to the evidence of ordinary experience. Hume cannot explain how one property can modify another or how a mere collection of properties can constitute the unity of a natural thing such as an individual plant, animal, or man. When considering whether the world is composed of substance· things with properties, or property-things all on their own, we must take into account both observation and logic. In any philosophical approach to reality ordinary experience must he given the basic and primary role. Starting with the reality of properties, and realizing that they cannot go on inhering in each other or in... (shrink)