In lieu of an abstract, here is a brief excerpt of the content:Ghazali and Demonstrative Science MICHAEL E. MARMURA I MEDIEVALISLA_MICtheologians subjected Aristotle's theory of the essential efficient cause to severe criticism and rejected it. This criticism and rejection finds its most forceful expression in the writings of Ghazali (al-Ghaz~li) (d. 1111).1 In his Tahafut al-Falasifa (The Incoherence of the Philosophers), he argues on logical and empirical grounds that the alleged necessary connection between what is habitually regarded as (...) the natural efficient cause and its effect cannot be proven. He does not, however, take an agnostic stand on this question but proceeds to affirm two points: (1) that there is no causal agency in natural things; (2) that all natural events are the direct creation of God. Ghazali, moreover, does not confine such divine action to the realm of the inanimate and the irrational, in his al-Iqtis.~d fi-l-Ftiqad (The Golden Mean of Belief), he affirms the doctrine that the individual human act, like any other occurrence in the world, is also the direct creation of God. Causal efficacy resides in God alone. But the divine act, for Ghazali, is not an essential act. It does not proceed as the necessary consequence of divine essence. It is the arbitrary decree of the divine will, an attribute coeternal, but not identical with divine essence. Ghazali thus denies essential action altogether. In all this, he gives expression to the occasionalism of the Islamic school of dogmatic theology (kal~m) to which he belonged, the Ashcarite school. Ghazali had also a keen interest in logic. He wrote logical treatises for his fellow theologians, encouraging them to master this art as a tool to rebutt their doctrinal opponents. The~ treatises, in the main, sum up and explain the logic used by the Islamic philosophers--a logic that reflects the Stoic and Aristotelian traditions. Ghazali recognizes formal logic to be philosophically neutral, and hence in no way conflicting with his theology." He does not confine himself to formal logic in these expositions, however, but discusses Aristotelian demonstration. And it is in his statements on demonstration that we seem to be confronted with paradox. Demonstrative science, as understood by the Islamic philosophers, rests on the theory of essential causes and functions in terms of it. Indeed, in his reply to Ghazali's rejection of essential efficient causes in nature, Averroes (Ibn Rushd) (d. 1198) argues Texts frequently referred to in the notes will be abbreviated as follows: Demonstration: Ibn Sin~, Al-Shifa~; Logic V.; Demonstration, ed. A. E. Affifi,revised by I. Madkur (Cairo, 1956). Iqti~dd: A1-Ghaz~li, Al-Iqtisad Fi-l-ICtiqad(Cairo: no date). Metaphysics: Ibn Sin~, A1-Shif~: al-Ilah~yat (Metaphysics), ed. C. C. Anawati, S. Dunya, and S. Zayd, revised by I. Madkur (2 vols.; Cairo, 1960). MI: AI-Ghaz~lI,MiCyaral-CIlm,ed. S. Dunya (Cairo, 1961). TF: A1-Ghaz~ll, Tahafut al-Falasifa, ed. M. Bouyges (Beirut, 1927). TT: Ibn Rushd (Averroes), Tahafut al-Tahafut, ed. M. Bouyges, Beirut, 1930). 2 TF., pp. 15-17. [1831 184 HISTORY OF PHILOSOPHY that such a rejection would render demonstrative science impossible. We would have no true knowledge; at best, only opinion. 3For this staunch defender of Aristotle, the theory of natural efficient causality constitutes a necessary condition for demonstrative science. Yet Ghazali in his writings does not deny the claim that demonstration gives us certain knowledge about the natural order. On the contrary, he seems to be affirming this in both his Tahdfutand the logical treatise he appended to this work, Mi~jdral-CIlm(The Standardfor Knowledge).If Ghazali does in fact uphold this claim for demonstration, then he must either deny that the theory of essential efficient causality is a necessary condition for demonstrative science, or fall into contradiction. At first glance, Ghazali's position in the Micy~r,where he gives his most comprehensive treatment of demonstration, is highly ambiguous and suggests contradiction. He seems for the most part to be reproducing the essentials of the Aristotelian demonstrative theory. Although in one section he reaffirms his rejection of necessary causal connection in nature, he nonetheless continues to use such terms as "cause," "effect," "necessity" and "certainty" in what appear to be... (shrink)

Few interpreters of Aristotle have denied that both empirical, inductive methods and some kind of systematic deduction played a role in the philosophy of the biologist who expounded the West's first formal logic. But it has usually been the fashion to focus on one side of this polarity. In recent decades the focus has been on the empirical Aristotle. But some of the latest studies emphasize that Aristotle varied his methods according to context. G. E. L. Owen, for example, although (...) he feels that Aristotle took little care to separate inductive and deductive methods in the treatises, does allow that he uses deduction at times, and mentions book 6 of the Physics among them. (shrink)

By a thorough study of the Posterior Analytics and related Aristotelian texts, Richard McKirahan reconstructs Aristotle's theory of episteme--science. The Posterior Analytics contains the first extensive treatment of the nature and structure of science in the history of philosophy, and McKirahan's aim is to interpret it sympathetically, following the lead of the text, rather than imposing contemporary frameworks on it. In addition to treating the theory as a whole, the author uses textual and philological as well as philosophical (...) material to interpret many important but difficult individual passages. A number of issues left obscure by the Aristotelian material are settled by reference to Euclid's geometrical practice in the Elements. To justify this use of Euclid, McKirahan makes a comparative analysis of fundamental features of Euclidian geometry with the corresponding elements of Aristotle's theory. Emerging from that discussion is a more precise and more complex picture of the relation between Aristotle's theory and Greek mathematics--a picture of mutual, rather than one-way, dependence. Originally published in 1992. The Princeton Legacy Library uses the latest print-on-demand technology to again make available previously out-of-print books from the distinguished backlist of Princeton University Press. These editions preserve the original texts of these important books while presenting them in durable paperback and hardcover editions. The goal of the Princeton Legacy Library is to vastly increase access to the rich scholarly heritage found in the thousands of books published by Princeton University Press since its founding in 1905. (shrink)

Four instances of how science fiction contributes to the elucidation of novelty in the context of discovery are considered by extending existing discussions on temporal and use-novelty. In the first instance, science fiction takes an already well-known theory and produces its own re-interpretation; in the second instance, the scientific account is usually straightforward and whatever novelty that may occur would be more along the lines of how the science is deployed to extra-scientific matters; in the third instance, (...) science fiction takes an idea that appears impossible within the delimitations of reality and produces a universe where such a possibility becomes feasible; and in the fourth instance, science fiction extends from an idea already known at the time of the work’s production to simulate a possibility that could emerge should the extension be experimentally viable. However, the article will not end with a mere evaluation of these instances, but also proposes instances on how science fiction could contribute to new ways of experiencing, discerning, and working with scientific knowledge. (shrink)

The reception of the rational sciences, scientific practice, discourse and methodology into Arabic Islamic society proceeded in several stages of exchange with the transmitters of Iranian, Christian-Aramaic and Byzantine-Greek learning. Translation and the acquisition of knowledge from the Hellenistic heritage went hand in hand with a continuous refinement of the methods of linguistic transposition and the creation of a standardized technical language in Arabic: terminology, rhetoric, and the genres of instruction. Demonstration more geometrico, first introduced by the paradigmatic sciences-mathematics, astronomy, (...) mechanics-and adopted by philosophers embracing the cosmology of Neoplatonism, was complemented and superseded by the methods of syllogistic demonstration. Faced with the establishment of philosophy as a demonstrative science, which claimed absolute and universal knowledge, even the hermeneuti. (shrink)

The essays in this volume reflect the wide-ranging interests of John D. North, distinguished historian of science and philosophy.

This paper explores how scientific knowledge is used in a criminal case. I examine materials from an admissibility hearing in a murder trial and discuss the dynamics of contesting expert scientific opinion and evidence. The research finds that a purported form of “science” in the relevant scientific community is filtered through, tested by, and subjected to legal standards, conceptions, and procedures for determining admissibility. The paper details how the opposing lawyers, the expert witness, and the judge vie to contingently (...) work out what will count in court as appropriate scientific authority, methods and evidence, and as a scientifically valid and legally admissible account of “reasonable fear.” When science becomes enmeshed in legal controversies, science does not trump law. Rather, it is the court’s canons of proper procedure and measures of substantive adequacy that take precedence. (shrink)

WE must first state the subject of our inquiry and the faculty to which it belongs: its subject is demonstration and the faculty that carries it out demonstrative science.

This book makes available for the first time an English translation of William of Ockham's work on Aristotle's _Posterior Analytics_, which contains his theory of scientific demonstration and philosophy of science. John Lee Longeway also includes an extensive commentary and a detailed history of the intellectual background to Ockham's work. He puts Ockham into context by providing a scholarly account of the reception and study of the _Posterior Analytics_ in the Latin Middle Ages, with a detailed discussion of Robert (...) Grosseteste, Albert the Great, Thomas Aquinas, Duns Scotus, and Giles of Rome. In a series of appendices, Longeway includes shorter translations of some important related work by Giles of Rome and John of Cornwall. In his introductory discussion, Longeway examines the exact character of the highest sort of demonstration, the relations of the empirical sciences to mathematics, natural causation and the manner in which natural laws come to be known, the possibility of natural knowledge, our knowledge of God, and the relation of theology to the other sciences. Longeway discusses the way in which scientific epistemology and theory of demonstration corresponds to the metaphysical position of its interpreter, in particular to the Neoplatonism of Grosseteste, the radical Aristotelianism of Giles of Rome and Albert the Great, the more moderate Aristotelianism of Aquinas, and the nominalistic empiricism of Ockham. Throughout the book, Longeway makes a case for Ockham's importance as the founder of empiricism in the West. _ “The present work is the result of decades of study of Ockham's philosophy of science. The translation and commentary are introduced by a chapter in which Longeway presents an overview of Ockham's thought in this area and highlights its philosophical significance. This introduction is in its own right a significant contribution to the history of philosophy.” — Owen Goldin, Marquette University_ "Like much else in medieval philosophy, medieval theories of demonstrative knowledge are historically important, philosophically interesting, and little understood. There are a few extensive studies into medieval discussions of demonstration and even fewer translations of these important discussions. Longeway's_ Demonstration and Scientific Knowledge in William of Ockham_ is, therefore, an important contribution to the field. This work contains not only an extensive set of translations of Ockham's work on the theory of demonstration, but also a book-length introduction in which Longeway surveys the development of medieval theories of demonstration prior to Ockham and situates Ockham's discussion within that development. The book will be of value to any scholar interested in Ockham's thought as well as to anyone interested more generally in medieval discussions of demonstration, science, and epistemology." —_Susan Brower-Toland, Saint Louis University_. (shrink)

In this book Bruno Latour brings together these different approaches to provide a lively and challenging analysis of science, demonstrating how social context..

How can we explain our capacity to think about particulars in our external environment? Many philosophers have answered this question in terms of a sophisticated conception of space and time and the movement of objects therein. A more recent reaction against this view sought to explain this capacity solely in terms of perceptual mechanisms of object individuation. Neither explanation remains fully satisfactory. This book argues for a more desirable middle ground in terms of a pragmatist approach to demonstrative thought, (...) where this capacity is explained through graded practical knowledge of objects. This view allows us to do justice to important insights put forward by both positions criticized in the book, while avoiding their potential shortcomings. It also paves the way to a more pragmatist approach to the theory of mental representation, where the notion of practical knowledge is allowed to play a central role in our cognitive life. Finally, it shows how practical knowledge may be firmly rooted in neurobiological processes and mechanisms that conform to what the empirical sciences tell us about the mind. (shrink)

This article presents Aristotelian scientific demonstration as a method for attaining intuitive theoria of essential natures. Such insight is attained through the discursive demonstrative syllogism. Science is understood as knowledge of causes through their effects, as opposed to an operative knowledge of the consequences of causes. This understanding is thus counter-reductionist.

What Science Offers the Humanities examines some of the deep problems facing the study of culture. It focuses on the excesses of postmodernism, but also acknowledges serious problems with postmodernism's harshest critics. In short, Edward Slingerland argues that in order for the humanities to progress, its scholars need to take seriously contributions from the natural sciences - and particular research on human cognition - which demonstrate that any separation of the mind and the body is entirely untenable. The author (...) provides suggestions for how humanists might begin to utilize these scientific discoveries without conceding that science has the last word on morality, religion, art, and literature. Calling into question such deeply entrenched dogmas as the 'blank slate' theory of nature, strong social constructivism, and the ideal of disembodied reason, What Science Offers the Humanities replaces the human-sciences divide with a more integrated approach to the study of culture. (shrink)

Japan and the Enemies of Open Political Science argues that Eurocentric blindness is a scientific failing, not a moral one. In a way true of no other political system, Japan's greatness has the potential to enliven and reform almost all the main branches of Western Political Science. David Williams criticizes Western social science, Anglo-American Philosophy and French Theory and explains why mainstream economists, historians of political thought and postculturalists have ignored Japan's modern achievements. Williams demonstrates why the (...) renewal of social science and the nurturing of a "a philosophy of the Pacific Century" requires a sustained act of intellectual demolition. (shrink)

Peter Anstey presents a thorough and innovative study of John Locke's views on the method and content of natural philosophy. Focusing on Locke's Essay concerning Human Understanding, but also drawing extensively from his other writings and manuscript remains, Anstey argues that Locke was an advocate of the Experimental Philosophy: the new approach to natural philosophy championed by Robert Boyle and the early Royal Society who were opposed to speculative philosophy. On the question of method, Anstey shows how Locke's pessimism about (...) the prospects for a demonstrative science of nature led him, in the Essay, to promote Francis Bacon's method of natural history, and to downplay the value of hypotheses and analogical reasoning in science. But, according to Anstey, Locke never abandoned the ideal of a demonstrative natural philosophy, for he believed that if we could discover the primary qualities of the tiny corpuscles that constitute material bodies, we could then establish a kind of corpuscular metric that would allow us a genuine science of nature. It was only after the publication of the Essay, however, that Locke came to realize that Newton's Principia provided a model for the role of demonstrative reasoning in science based on principles established upon observation, and this led him to make significant revisions to his views in the 1690s. On the content of Locke's natural philosophy, it is argued that even though Locke adhered to the Experimental Philosophy, he was not averse to speculation about the corpuscular nature of matter. Anstey takes us into new terrain and new interpretations of Locke's thought in his explorations of his mercurialist transmutational chymistry, his theory of generation by seminal principles, and his conventionalism about species. (shrink)

Cognitive Science combines the interdisciplinary streams of cognitive science into a unified narrative in an all-encompassing introduction to the field. This text presents cognitive science as a discipline in its own right, and teaches students to apply the techniques and theories of the cognitive scientist's 'toolkit' - the vast range of methods and tools that cognitive scientists use to study the mind. Thematically organized, rather than by separate disciplines, Cognitive Science underscores the problems and solutions of (...) cognitive science, rather than those of the subjects that contribute to it - psychology, neuroscience, linguistics, etc. The generous use of examples, illustrations, and applications demonstrates how theory is applied to unlock the mysteries of the human mind. Drawing upon cutting-edge research, the text has been updated and enhanced to incorporate new studies and key experiments since the first edition. A new chapter on consciousness has also been added. (shrink)

Le rôle de Haüy comme 'grand législateur de la minéralogie', pour reprendre le jugement de Cuvier, a laissé dans l'ombre son activité dans le domaine de l'électricité. Il est vrai que le phénomène découvert par Haüy — l'électricité de pression — a perdu son intérêt pour les physiciens à la fin du XIXe siècle. C'est l'analyse de l'évolution des attitudes de Haüy envers l'électricité qui présente pour nous de l'intérêt en ce qu'elle permet de mieux comprendre la puissance, et l'ambiguïté, (...) du mouvement collectif qui bouleverse la physique française de la fin du xviiie siècle, mouvement dont il fut un acteur majeur . Dans les années 1770, ce religieux se comporte comme tous les amateurs d'électricité en démontrant publiquement ses propriétés spectaculaires . Lorsqu'il se consacre à fonder la cristallographie sur la géométrie, il n'oublie pas les amateurs de minéraux ; il leur propose une classification simplifiée des cristaux suivant leurs propriétés électriques, propriétés à établir avec des instruments électriques qualitatifs. Mais lorsque Coulomb fait connaître sa loi fondamentale de l'électricité, appuyée sur une expérience hautement technique et de grande sensibilité, Haüy se convertit à cette nouvelle science de l'électricité. Bien que non mathématicien et étranger à ce type d'expérience — c'est là que réside l'ambiguïté — Haüy se fait l'ardent diffuseur de cette électricité radicalement nouvelle qui rejette les amateurs hors du champ de la science. Devenu membre reconnu de la communauté physico-mathématique parisienne, Haüy s'est parfaitement intégré dans la démarche mise en avant par ses confrères de l'Académie, Lavoisier, Laplace ou Coulomb, et a définitivement quitté le royaume des amateurs de cristaux ou d'étincelles. (shrink)

In lieu of an abstract, here is a brief excerpt of the content:Journal of the History of Philosophy 41.2 (2003) 277-278 [Access article in PDF] John Hedley Brooke, Margaret J. Osler, and Jitse M. van der Meer, editors. Science in Theistic Contexts: Cognitive Dimensions. Chicago: University of Chicago Press Journals Division, 2001. Pp. xiii + 376. Cloth, $39.00. Paper, $25.00. Some twenty years ago, when I submitted a dissertation proposal to explore connections between theologies of creation and views of (...) scientific knowledge in the seventeenth century, my doctoral committee was not initially enthusiastic—my idea might make a good dissertation in religion, but was it really history of science? I doubt I would have a similar experience today. Not only has the "warfare" thesis of science and religion been laid permanently to rest, historians have begun seriously to question whether it makes sense even to treat "religion" and "science" in an essentialist manner as separate ways of thinking that do not ordinarily interact. Many detailed case studies demonstrating a variety of fascinating, often important connections between science and religion have appeared from leading scholars in the past two decades. This trend continues in the latest volume of Osiris, which contains sixteen essays documenting various ways in which religious beliefs have influenced the actual content and presentation of science.The volume opens with two companion essays laying out the terrain. First, Brooke engages the new methodological and conceptual problems that confront historians following the demise of the "warfare" thesis. Then Stephen Wykstra offers criteria for sorting out the various roles for metaphysical and religious beliefs (which he distinguishes) in shaping scientific knowledge. The case studies begin with E. Jamil Ragep's essay on medieval Islamic astronomy, arguing that religion sometimes had a constructive role—a rather novel claim for Islamic science, he points out. Noah J. Efron and Menachem Fisch show how early modern Jewish exegetical practices influenced David b. Solomon Gans's interpretations of astronomical texts, and quite possibly his interpretation of nature also. A Christian astronomer is next, as Peter Barker and Bernard R. Goldstein detail how Johannes Kepler's theology contributed directly to the discovery of scientific laws. Maurice A. Finnocchiaro then reviews various accounts of the Galileo affair, finding far more conflict in the subsequent historiography of the events than in the trial itself.Moving from astronomy to natural philosophy, Margaret G. Cook's essay on Robert Boyle examines the web of connections between theology, the mechanical philosophy, and [End Page 277] "the Aristotelian philosophy that he sought to replace." She demonstrates that Boyle used the classical art/nature distinction "to interpret the biblical account of the Creation and to argue that chemical techniques offered experimental confirmation that the world, created by art, worked by the same mechanical principles as artificial objects, not by the inherent agency of Aristotelian nature" (136). Margaret J. Osler also writes about Boyle. Contrary to the traditional view that final causes were expunged from science by the mechanical philosophy—a view that originated in the "positivism and scientific optimism" of the postwar period (168)—she proves that final causality remained central to the thought of Boyle and Pierre Gassendi. The essay by Stephen D. Snobelen presents substantial evidence that the famous General Scholium, appended to the second edition of Isaac Newton's Principia, was a carefully worded declaration of Newton's heterodox theology. "A Trinitarian," Snobelen concludes, "could not have written the General Scholium" (186). He also shows the degree to which Newton's theology shaped his overall natural philosophy, decisively debunking the late Richard S. Westfall's view that such influences could not be found.The final seven essays are mainly devoted to nineteenth-century science. Michael J. Crowe documents several ways in which Christian beliefs about divine goodness and the Incarnation affected astronomy. Martin Fichman shows how Alfred Russel Wallace's theism—not merely a vague spiritualism, as traditional accounts claim—"shaped the cognitive content of his mature evolutionary synthesis, which included a theoretical reconceptualization of the scope of natural selection" (227). In a revisionist account of Charles Darwin's philosophy of "nature," Phillip R. Sloan challenges the received view that... (shrink)

From scientia to science Content Type Journal Article DOI 10.1007/s11016-010-9483-3 Authors Peter R. Anstey, Department of Philosophy, University of Otago, PO Box 56, Dunedin, 9054 New Zealand Journal Metascience Online ISSN 1467-9981 Print ISSN 0815-0796.

Science is popularly understood as being an ideal of impartial algorithmic objectivity that provides us with a realistic description of the world down to the last detail. The essays collected in this book—written by some of the leading experts in the field—challenge this popular image right at its heart, taking as their starting point that science trades not only in truth, but in fiction, too. With case studies that range from physics to economics and to biology, _Fictions in (...) Science_ reveals that fictions are as ubiquitous in scientific narratives and practice as they are in any other human endeavor, including literature and art. Of course scientific activity, most prominently in the formal sciences, employs logically precise algorithmic thinking. However, the key to the predictive and technological success of the empirical sciences might well lie elsewhere—perhaps even in scientists’ extraordinary creative imagination instead. As these essays demonstrate, within the bounds of what is empirically possible, a scientist’s capacity for invention and creative thinking matches that of any writer or artist. (shrink)