In a recent paper, Luc Faucher and others have argued for the existence of deep cultural differences between ‘Chinese’ and ‘East Asian’ ways of understanding the world and those of ‘ancient Greeks’ and ‘Americans’. Rejecting Alison Gopnik’s speculation that the development of modern science was driven by the increasing availability of leisure and information in the late Renaissance, they claim instead—following Richard Nisbett—that the birth of mathematical science was aided by ‘Greek’, or ‘Western’, cultural norms that (...) encouraged analytic, abstract and rational theorizing. They argue that ‘Chinese’ and ‘East Asian’ cultural norms favoured, by contrast, holistic, concrete and dialectical modes of thinking. After clarifying some of the things that can be meant by ‘culture’ and ‘mentality’, the present paper shows that Faucher and his colleagues make a number of appeals—to the authority of comparative studies and history of science, to the psychological studies of Nisbett and his colleagues, and to a hidden assumption of strong cultural continuity in the West. It is argued that every one of these appeals is misguided, and, further, that the psychological findings of Nisbett and others have little bearing on questions concerning the origins of modern science. Finally, it is suggested that the ‘Needham question’ about why the birth of modern science occurred in Europe rather than anywhere else is itself multiply confused to the extent that it may express no significant query.Author Keywords: Nisbett; Needham; Gopnik; Modern science; Chinese science. (shrink)

Summary To understand the present situation we must know something about its history. The ‘Rise of the West’, which grew out of the ‘European Miracle’, is a special case of cultural evolution. The development of science is an important element in this process. Cultural evolution went hand in hand with biological evolution. Evolutionary epistemology illuminates the achievements and the evolution of cognitive sensory apparatus of various species. Man's cognitive sensory apparatus is adapted to the ‘mesocosmos’, the world of medium-sized (...) dimensions. The biological structures constitute the hardware of the cognitive sensory apparatus, while certain expectations and theories, which are ontogenetically apriori, constitute the corresponding system software. A distinction is introduced between ‘primary theories’ (linked to the sensory apparatus) and ‘secondary theories’. The latter are the result of attempts to meet the demand for an explanation of phenomena that cannot be explained in terms of ‘primary theories’. Two subsets of ‘secondary theories’ are compared: spiritualistic-personalized theories and scientific theories. From the historical point of view the scientific secondary theories are but a special subset of the class of secondary theories. From the systematic point of view it is instructive to focus on a comparison of the two subsets: what do they have in common? in what respects do they differ? The rise of scientific thinking is closely linked to the ‘European Miracle’. How (and when and why) did the West grow rich? To answer this question we must first produce an explanation of the principle: theories about the consequences of institutional arrangements. Then we can give a historical explanation of why this development took place in Europe and only there. It is claimed that the secret of success, economic wealth and the first approximations to relatively free societies, was the taming of the state, the taming of cleptocracy (independent of the nature of the agency having cleptocratic appetites, be it princes or parliaments). The taming of the state is a pre-democratic achievement. Finally, the consequences of institutional arrangements for scientific progress and innovation are examined. Only if the system is market-like, will it link individual effort with reward and, through the competitive process, encourage the wide dissemination and use of new ideas. There is no tradeoff between freedom on the one hand and economic success and the growth of scientific knowledge on the other. Freedom and the ensuing flexibility is the key to the past and to the future. (shrink)

There are two Habsburg empires in our minds: One – that of Stefan Zweig and Joseph Roth – evokes melancholy and a sense of loss, a yearning not for simpler but perhaps more colourful, less exacting...

The '70s of the 19th century have always held a special attraction point for specialists in the history of thought. For economic theory, these are the years of the Great Crossroads when economic theory was at critical breaking point, after which several powerful theoretical streams emerged that were to determine later on the overall course of the evolution of economics. The book written by the French economist and philosopher Gilles Campagnolo is an attempt to find out exactly what happened in (...) the years of the Great Crossroads. It offers not only historical reading, but also theoretical interpretation to explaining the evolution, mutual influence and intermingling of the above individual schools of thought in the economic science. The present paper is a review essay on Campagnolo’s new book. (shrink)

Quel est le rôle de Galilée dans la naissance séculaire de la science moderne? Je réponds à la question ci-dessus à la lumière de deux nouveaux éléments. Dès le xvie siècle, Nicolas de Cues, quoiqu’il ne pratiquât pas la science expérimentale, a anticipé une partie substantielle de la révolution copernicienne et de la naissance de la méthodologie galiléenne. Le deuxième élément est l’introduction d’une nouvelle conception des fondements de la science ; ils sont définis comme constitués de (...) trois dialectiques. Après cette définition, la naissance de la science moderne correspond à un très long processus historique qui se conclut à notre époque. Sur cette longue période, Galilée ne fut pas seulement le premier à recourir à une méthodologie scientifique, mais aussi presque le seul à jamais avoir été conscient de l’ampleur des enjeux intellectuels de l’entreprise scientifique. (shrink)

This book casts new light on the process that in the sixteenth and seventeenth centuries led to a profound transformation in the study of nature with the emergence of mechanistic philosophy, the new mixed mathematics, and the establishment of the experimental approach. It is argued that modern European science originated from Hellenistic mathematics not so much because of rediscovery of the latter but rather because its “applied” components, namely mechanics, optics, harmonics, and astronomy, and their methodologies continued to (...) be transmitted throughout the Middle Ages without serious interruption. Furthermore, it is proposed that these “applied” components played a role in their entirety; thus, for example, “new” mechanics derived not only from “old” mechanics but also from harmonics, optics, and astronomy. Unlike other texts on the subject, the role of mathematicians is stressed over that of philosophers of nature and the focus is particularly on epistemological aspects. In exploring Galilean and post-Galilean epistemology, attention is paid to the contributions of Galileo’s disciples and also the impact of his enemies. The book will appeal to both historians of science and scientists. (shrink)

When I first encountered Indian philosophy after having studied Western philosophy, two examples of comparative interest caught my attention. One was Saussure's theory of meaning through difference (which led to the vibrant traditions of structuralism, poststructuralism, and postmodernism). I was immediately struck by the stark similarity between this theory and the Buddhist apoha theory of meaning. The other example was that of Hume, and in this case I was amazed at the sophistication of the Indian philosophical discussions on the problem (...) of induction compared to which Hume's analysis was quite pedestrian. My encounter with both these issues illustrated two problems in the history of ideas. In the case of .. (shrink)

Ancient Greek philosophers claimed that the adequate understanding of a particular subject can be achieved only when its nature, or essence, is properly defined. This view furnished the core teachings of late medieval natural philosophers, and was often reaffirmed by early modern philosophers such as Bacon and Descartes. Yet during the second half of the seventeenth century, a radical transformation was to take place that led a to the emergence of a recognisably modern cultures of empirical research.Experimental Philosophy (...) and the Birth of Empirical Science focuses on the works of Robert Boyle, John Locke, and Isaac Newton, the most notable exponents of the experimental philosophy in the late seventeenth century, and explores this transformation to a modern viewpoint that seeks to understand phenomena by seeking explanatory correlations between the empirical properties of the universe.Experimental Philosophy and the Birth of Empirical Science offers a novel solution to one of the major problems in the history of early modern science and philosophy, while addressing received views concerning these problems. It provides a new perspective on the Scientific Revolution and the rise of modern science and offers new tools for science studies in general, by showing how the problem of human understanding and the problem of explanation are central to the evolution of science, and how we can combine historical and sociological approaches to study modern science from this perspective. (shrink)

Pierre Gassendi was a major figure in seventeenth-century philosophy whose philosophical and scientific works contributed to shaping Western intellectual identity. Among "new philosophers", he was considered Descartes’ main rival, and he belonged to the first rank of those attempting to carve out an alternative to Aristotelian philosophy. Given the importance of Gassendi for the history of science and philosophy, it is surprising to see that he has been largely ignored in the Anglophone world. This collection of essays constitutes the (...) first book on Gassendi that comprehensively covers his biography, bibliography, and all aspects of his philosophy. The book is divided into four parts. It begins with a brief sketch of the intellectual world of seventeenth-century France, Gassendi’s early attacks on Aristotle, and a bibliographical essay on early-modern publications of Gassendi’s writings. Part II explores Gassendi’s contributions to logic, natural philosophy, and astronomy and cosmology. Part III addresses Gassendi as a humanist and participant in seventeenth-century philosophical and scientific debates, including his advocacy of Epicurean philosophy and his relation to the sceptical tradition. The fourth and final part involves a brief discussion of the reception of Gassendi’s thought, including the paraphrases of his works published in France and England. This book is an essential resource for scholars and upper-level students of early modern philosophy, intellectual history, and the history of science who want to get acquainted with Pierre Gassendi as a major philosopher and intellectual figure of the early modern period. (shrink)

Since its birth in 1600 opera has been interpreted as an attempt to revive Greek tragedies in its marvelous music. Its provocative presentation of action and narration entirely in music has been seen as a manifestation of the enchanted universe of sixteenth-century hermeticism. Viewed as a final homage to the magical incantations of the premodern era, late Renaissance operas have been interpreted as the culmination rather than the dissolution of Renaissance culture. This paper proposes that the relationship between the (...) natural and the supernatural in early opera represents a rational mediation between the real and the unreal rather than an enchanted bond between these realms. The paper situates the birth of opera in the context of the epistemological shift of the new science and suggests that opera played a key role in the transition from the old to the modern notions of meaning and truth. (shrink)

The Victorian era is a unique historical period of turbulent political, economic and social changes. These changes also touched upon science: the emergence of new theories and experimental data, new discoveries and inventions, the growth of the number of scientific societies, the debate about teaching methods in universities and the significance of science and scientists for the state laid the foundations for the institutional structure of the modern sciences. In addition, it is the Victorian era when a (...) fundamentally new theoretical discipline, the philosophy of science, was born. At the heart of the article, there is the personality and social circle of its founder, William Whewell, the author of the fundamental work “The Philosophy of the Inductive Sciences founded upon their history”. The author reconstructs the making of the philosophy of science as an independent discipline, considering it, on the one hand, as a product of the Victorian era, and on the other – as a tool for the formation of the modern sciences in all their diversity. (shrink)

By taking the work and life of the historian of mathematics Heinrich Wieleitner as an example, this study aims to highlight the many interrelations between the historiography of mathematics, mathematics education, and science communication in mathematics.By integrating aspects of the history of media, this case study also explores mathematical public relations work in the 20th century and draws attention to the important persons, institutions and contents. The focus is on the Weimar period, in which the self-understanding of mathematics was (...) challenged in different ways by far-reaching cultural debates. The article demonstrates that as a consequence of a changing media landscape, Weimar culture turned out to be a suitable environment for the successful self-presentation of mathematics. (shrink)

This richly illustrated book discusses the ways in which astronomy expanded after 1945 from a modest discipline to a robust and modern science. It begins with an introduction to the state of astronomy in 1945 before recounting how in the following years, initial observations were made in hitherto unexplored ranges of wavelengths, such as X-radiation, infrared radiation and radio waves. These led to the serendipitous discovery of more than a dozen new phenomena, including quasars and neutron stars, that (...) each triggered a new area of research. The book goes on to discuss how after 1985, the further, systematic exploration of the earlier discoveries led to long-term planning and the construction of new, large telescopes on Earth and in Space. Key scientific highlights described in the text are the detection of exoplanets, the unexpected discovery of the accelerated expansion of the Universe, a generally accepted model for the large-scale properties of the Universe and the ΛCDM theory that explains how the galaxies and stars of the present Universe were formed from minute irregularities in the homogenous gas that filled the early Universe. All these major scientific achievements came at a price, namely the need to introduce two new phenomena that are as yet unexplained by physics: inflation and dark energy. Probably the deepest unsolved question has to be: Why did all of this start with a Big Bang? (shrink)

Pierre Gassendi (1592–1655) has never really received the respect he deserves, especially in the Anglo-American world. His contemporaries recognized his Christianized Epicurean system, with its mit...

The bestselling author of Seven Brief Lessons on Physics illuminates the nature of science through the revolutionary ideas of the Greek philosopher Anaximander Over two millennia ago, the prescient insights of Anaximander paved the way for cosmology, physics, geography, meteorology, and biology, setting in motion a new way of seeing the world. His legacy includes the revolutionary ideas that the Earth floats in a void, that animals evolved, that the world can be understood in natural rather than supernatural terms, (...) and that universal laws govern all phenomena. He introduced a new mode of rational thinking with an openness to uncertainty and the progress of knowledge. In this elegant work, the renowned theoretical physicist Carlo Rovelli brings to light the importance of Anaximander's overlooked influence on modern science. He examines Anaximander not from the point of view of a historian or as an expert in Greek philosophy, but as a scientist interested in the deep nature of scientific thinking, which Rovelli locates in the critical and rebellious ability to reimagine the world again and again. Anaximander celebrates the radical lack of certainty that defines the scientific quest for knowledge. (shrink)

With a never-before published paper by Lord Henry Cavendish, as well as a biography on him, this book offers a fascinating discourse on the rise of scientific attitudes and ways of knowing. A pioneering British physicist in the late 18th and early 19th centuries, Cavendish was widely considered to be the first full-time scientist in the modern sense. Through the lens of this unique thinker and writer, this book is about the birth of modern science.

A message from the stars -- A dispute over buoyancy -- Inertia, Empiricism, and spots on the sun -- Science and religion -- Troubles in Rome: 1615-1616 -- Mathematics and the book of nature -- Showdown -- Matter and motion.

This volume covers the period between the 1890s and 1930s, a period that witnessed revolutions in the arts and society which set the agenda for the rest of the century. In philosophy, the period saw the birth of analytic philosophy, the development of new programmes and new modes of inquiry, the emergence of phenomenology as a new rigorous science, the birth of Freudian psychoanalysis, and the maturing of the discipline of sociology. This period saw the most influential (...) work of a remarkable series of thinkers who reviewed, evaluated and transformed 19th-century thought. A generation of thinkers - among them, Henri Bergson, Emile Durkheim, Sigmund Freud, Martin Heidegger, Edmund Husserl, Karl Jaspers, Max Scheler, and Ludwig Wittgenstein - completed the disenchantment of the world and sought a new re-enchantment. (shrink)

This year is the 300th anniversary of the birth of Emanuel Swedenborg (1688 - 1772). Although he worked in the eighteenth century, his investigations into the nature of physical, physiological and spiritual processes are still relevant today, although they are not as widely known as they deserve. In this article, I will briefly describe the stages in Swedenborg's life, and outline his mature teachings with particular relevance to what is relevant to the concerns of contemporary science, and to (...) the concerns of those wishing to extend that science. (shrink)

This article looks at Vesto Slipher’s work on nebular spectroscopy between 1912 and 1922as well as related research by other astronomers of the period, and it examines the dissem-ination of their results more widely. Slipher’s observations are viewed as marking the di-viding line between speculation about the universe in traditional astronomy and theadvent of modern cosmology and the theory of an expanding universe. The intent is todocument the dissemination of Slipher’s results in the period leading up to the publicationof (...) studies of relativistic cosmology by Willem de Sitter in 1917 and Alexander Friedmannin 1922. Themes touched on in the article include the unprecedented character ofSlipher’sfindings and the interaction of observation and theory in modern cosmology.A prominent concern is the role of technology in astronomical science over the past cen-tury and a half. Here reference is made to the writings of Paul Forman on historical shiftsthat have taken place in our understanding of the relationship of science and technology. (shrink)

The volume describes a virtual tour of the cities in which Franz Brentano and his pupils worked and lived, with a reconstruction of the intellectual climate of their time. After the Introduction, the intellectual life of Wurzburg, Munich, Vienna, Prag, Lvov, Warsaw, Cambridge, Florence and Milan is presented and analyzed. The papers collected in this volume propose several answers to the following question: to what do we refer when we speak of Central European philosophy?. Interpretations of Central European philosophy have (...) developed in at least two broad directions. An interpretation fashionable during the 1970s lumps specific philosophical achievements, especially those of Mach and Wittgenstein, characterized by research into and development of new languages, of new philosophical, scientific and artistic grammars. In this situation, literature was seen as the exploration of meanings moving towards frontiers in which reality and possibility, science and metaphor, meet and merge. On the other hands, the theme of a Central European philosophy, connected with but independent of literature, has recently been given more thorough development. The two outstanding figures to have emerged from this inquiry are those of Bernard Bolzano and Franz Brentano. With reference to Brentano in particular, it is almost as if the collapse of the Empire also erased awareness of the common origin of many diverse components of Central European philosophical and scientific thought. The Polish logical school, logical neopositivism, phenomenology, the Prague school of linguistics, analytic philosophy, Gestalt psychology, the Vienna economics school - as well as a number of individual thinkers - are all movements and groups connected in some manner with Brentano's work and teaching. Although in some respects these are movements still at the centre of interest, the overall effect, the pattern of their common and unifying aspects have been neglected if they have not entirely disappeared. It seems that the unity of this philosophical tradition was lost with the end of the geographical and political unity of the Danubian empire and with the events that accompanied its downfall. After 1918 the centres of that tradition - Vienna, Prague, Lvov, Graz - belonged to different states, and its rich network of exchanges, contacts and relationships was dismantled forever. However, there still remained something of its philosophical style in each individual school; traits which enable us to speak, as the Authors have done in this volume, of Central European philosophy.". (shrink)

There are many interpretations of the birth of modern science. Most of them are, nevertheless, confined to the analysis of certain historical episodes or technical details, while leaving the very notion of mathematization unanalyzed. In my opinion this is due to a lack of a proper philosophical framework which would show the process of mathematization as something radically new. Most historians assume that the world is just like it is depicted by science. Thus they are not (...) aware of the radical novelty of the mathematization of nature and focus their attention on the details of this process. Phenomenology by its radical questioning of the traditional interpretations of reality provides an ideal means for the reconstruction of the process of mathematization of nature and the birth of mathematical natural science. In a series of papers I tried to show the power of Husserl 's concept of mathematization by filling in the historical details into his interpretation. In the present article I want to compare Husserl 's approach with the approach of Heidegger. I believe that by comparing these two phenomenological theories of mathematization the advantages of Husserl 's approach will come to the fore. _German_ Es gibt mehrere Interpretationen der Entstehung der modernen Wissenschaft. Die meisten von ihnen beschränken sich allerdings auf die Analyse bestimmter historischer Episoden oder technischer Details, während der Begriff der Mathematisierung unanalysiert bleibt. Meiner Meinung nach ist dies auf das Fehlen eines richtigen philosophischen Rahmens zurückzuführen, der den Prozess der Mathematisierung als etwas radikal Neues zeigen würde. Die meisten Historiker gehen davon aus, dass die Welt so ist, wie sie von der Wissenschaft dargestellt wird. So verkennen sie die Radikalität der Mathematisierung der Natur und konzentrieren ihre Aufmerksamkeit auf die Details dieses Prozesses. Die Phänomenologie bietet dank ihrer radikalen Kritik der traditionellen Interpretationen der Realität ein ideales Mittel für die Rekonstruktion des Prozesses der Mathematisierung der Natur und der Geburt der mathematischen Naturwissenschaft. In einer Reihe von Arbeiten habe ich versucht, die Stärke der Husserlschen Interpretation der Mathematisierung zu zeigen, indem ich die historischen Details in seine Interpretation einfügte. Im vorliegenden Artikel möchte ich Husserls Ansatz mit dem Ansatz von Heidegger vergleichen. Durch diesen Vergleich der beiden phänomenologischen Theorien der Mathematisierung der Natur werden die Vorteile von Husserls Ansatz in den Vordergrund treten. (shrink)

This volume covers the period between the 1890s and 1930s, a period that witnessed revolutions in the arts and society which set the agenda for the rest of the century. In philosophy, the period saw the birth of analytic philosophy, the development of new programmes and new modes of inquiry, the emergence of phenomenology as a new rigorous science, the birth of Freudian psychoanalysis, and the maturing of the discipline of sociology. This period saw the most influential (...) work of a remarkable series of thinkers who reviewed, evaluated and transformed 19th-century thought. A generation of thinkers - among them, Henri Bergson, Emile Durkheim, Sigmund Freud, Martin Heidegger, Edmund Husserl, Karl Jaspers, Max Scheler, and Ludwig Wittgenstein - completed the disenchantment of the world and sought a new re-enchantment. (shrink)

Introduction A Brief Conceptual Framework for Biology PART ONE: UNDERSTANDING NATURE 1. The Antecedents of Scientific Thought Animism, Totemism, and Shamanism The Paleolithic View Mesopotamia Egypt 2. Aristotle and the Greek View of Nature The Science of Animal Biology The Parts of Animals The Classification of Animals The Aristotelian System Basic Questions 3. Those Rational Greeks? Theophrastus and the Science of Botany The Roman Pliny Hippocrates, the Father of Medicine Erasistratus Galen of Pergamum The Greek Miracle 4. The (...) Judeo-Christian Worldview The Bishop of Hippo Scholastic Thought Islamic Science Books on Beasts Antecedents of a Revolution 5. The Revival of Science Andreas Vesalius and the Study of Structure William Harvey and the Study of Function Sir Francis Bacon’s Great Instauration Induction, Hypothesis, Deduction The Very Small--Animalcules Robert Hooke and the Discovery of Cells 6. Figur’d Stones and Plastick Virtue Marine Life on Mountain Tops? Figured Stones of Unknown Creatures Baron Cuvier Quarries of the Paris Basin Catastrophism and Uniformitarianism William Smith and the Geological Column Understanding Nature in 1850 PART TWO: THE GROWTH OF EVOLUTIONARY THOUGHT 7. The Paradigm of Evolution First Questions The Paradigm of Natural Theology First Answers 8. Testing Darwins Hypotheses Have Life Forms Changed over Time? Do Species Evolve into Different Species over Time? Has There Been Time Enough for Evolution? Is Natural Selection the Mechanism of Change? The Genetic Basis of Natural Selection Accounting for the Diversity of Life 9. In the Light of Evolution Comparative Anatomy Embryonic Development Classification Microstructure Molecular Processes 10. Life over Time The Origin of Life The Rise of Multicelled Organisms What Is a Phylum? Burgess Shale Metazoans Early Evolution of the Vertebrates The Age of Dinosaurs Birds, Mammals, and Flowering Plants The Rancho La Brea Tar Pits Human Evolution The Role of Extinction in Evolution PART THREE: CLASSICAL GENETICS 11. Pangenesis What Is the Question? Hippocrates and Aristotle The Darwinian Answer Assembling the Data Formulating the Hypothesis by Induction Galton’s Rabbits 12. The Cell Theory The Discovery of Cells: Robert Hooke Schwann and Cells in Animals Gametes as Cells Omnis cellula e cellula? The Technology of Cell Research 13. The Hypothesis of Chromosomal Continuity The Ephemeral Nucleus Schneider, Flemming, and Cell Division The Chromosomes and inheritance Gamete Formation Fertilization 14. Mendel and the Birth of Genetics Model for Monohybrid Crosses Model for Dihybrid Crosses Mendel’s Laws Initial Opposition to Mendelism 15. Genetics + Cytology: 1900-1910 Sutton’s Model The Cytological Basis of Mendel’s Laws Boveri and Abnormal Chromosome Sets Variations in Mendelian Ratios The Discovery of Sex Chromosomes 16. The Genetics of the Fruit Fly Morgan’s First Hypothesis Morgan’s Second Hypothesis The Fly Room Linkage and Crossing-Over The Cytological Proof of Crossing-Over Mapping the Chromosomes The Final Proof The Determinants of Sex The Conceptual Foundations of Classical Genetics 17. The Structure and Function of Genes One Gene, One Enzyme The Substance of Inheritance The Watson-Crick Model of DNA Genes and the Synthesis of Proteins The Genetic Code PART FOUR: THE ENIGMA OF DEVELOPMENT 18. First Principles The Peripatetic Stagirite The Death and Rebirth of Scientific Thought Harvey and Malpighi A Two-Millennial Summing Up Preformation versus Epigenesis 19. The Century of Discovery Von Baer’s Discovery of the Mammalian Ovum Darwin’s Contribution to Embryology Haeckel and Recapitulation 20. Descriptive Embryology Germ Layers The External Development of the Amphibian Embryo The Internal Development of the Amphibian Embryo 21. The Dawn of Analytical Embryology His, Roux, and Mosaic Development Driesch and Regulative Development Novelty in Development Cell Lineage Nucleus or Cytoplasm? Fin de Siècle 22. Interactions during Development Amphibian Organizers Secondary Organizers The Reacting Tissue The Chemical Nature of the Organizer Putting It All Together Conclusion Further Reading References Illustration Credits Index. (shrink)

This book offers a comprehensive treatment of the philosophical system of the seventeenth-century philosopher Pierre Gassendi. Gassendi's importance is widely recognized and is essential for understanding early modern philosophers and scientists such as Locke, Leibniz and Newton. Offering a systematic overview of his contributions, LoLordo situates Gassendi's views within the context of sixteenth- and early seventeenth-century natural philosophy as represented by a variety of intellectual traditions, including scholastic Aristotelianism, Renaissance Neo-Platonism, and the emerging mechanical philosophy. LoLordo's work will be (...) essential reading for historians of early modern philosophy and science. (shrink)

This article situates actor-network theory in the history of evolutionary anthropology. In the 1980s, this attempt at explaining the social through the mediation of nonhumans received important impulses from Bruno Latour’s conversations with primatologist Shirley Strum. In a re-articulation of social evolutionism, they proposed that the utilization of objects distinguished humans from baboons and that the use of a growing number of objects set industrialized human populations apart from hunter-gatherers, enabling the formation of larger collectives. While Strum’s and Latour’s early (...) work presented baboons as almost human and suggested that we moderns had never been modern, the Anthropocene has reawakened curiosity about the original question of anthropology: how do modern humans, including modern scientists, differ from premoderns and animals? This 18th-century question is gaining new significance and urgency as we recognize our transmutation into a super-dominant species. But the answer might not lie solely in the use of more objects. (shrink)

In lieu of an abstract, here is a brief excerpt of the content:The Birth of the Psychoanalytic Hero:Freud's Platonic LeonardoJohn FarrellThough the intellectual force of Freudian psychoanalysis grows weaker and weaker with time, its importance for the understanding of twentieth-century intellectual culture only increases. Freud made psychology a key ingredient in the century's conception of its own uniqueness and modernity. He claimed to initiate a decisive break with the past, but he also claimed to recover the past, indeed all (...) of human behavior, on new, scientific grounds. What Freud proposed was not just a new way of thinking about psychology but a new psychology, one that would permit unprecedentedly intrepid investigation of the past and the unconscious sources of its ways of thinking. But whereas Freud hoped to give us a new psychology of knowledge, what he did was to reintroduce one of the oldest psychologies of knowledge in a moderately disguised form. I will attempt to show this and assess the implications through a close examination of Freud's treatment of Leonardo da Vinci, a man he considered one of the great forerunners of the modern intellect.Psychoanalysis is both a theory of the psyche and a scientific movement. Its dual nature makes it almost a unique element in the culture of modern science. Freud and his followers repudiated the separation between institutional affiliation and intellectual commitment that had been carried down from seventeenth-century England. The original form of the psychoanalytic movement was a throwback to that of the ancient philosophical academies.1 Almost from the beginning of psychoanalysis its founders had recourse to a canon of dogma with the primacy of the libido at its center. Adherence to this canon, and the rituals of initiation and training surrounding it, became the basis for [End Page 233] an exclusive intellectual and professional commitment that separated initiates from the professional community at large.It is well known that the founders of psychoanalysis made use of psychoanalytic theory to explain the movement's adversarial relationship with the outside world. The doctrine of resistance to the libido allowed Freudians to interpret the hidden motives of anyone who might disagree with them. The ire of critics could be cited as proof of the intensity of unconscious repression applied to sexuality, the incredulity of unbelievers as evidence of an unwillingness to endure the wounds to human narcissism exacted by the Freudian system, and even slips of the tongue could be turned against unwitting opponents. The fact that psychoanalysis was greeted with hostility in some quarters was taken to prove that the universal tendency of humankind was to resist its teachings, and the lapsing away of prominent disciples illustrated the difficulty of living with these hard truths. Heretics were pitied as weaklings unable to face up to the power of the unconscious, unable to keep themselves from disguising it with it some pale reflection of the ego. And so the embattled history of psychoanalysis became part of the empirical evidence of its validity in a way that could never have occurred with a theory generated in the normal research environment. The doctrine of resistance seemed to have been designed as much for polemical as for analytic purposes. Like the monster in Forbidden Planet, the fifties Freudian fairy tale, the more psychoanalysis was resisted, the more it grew. The self-confirming value that could be derived from the history of the movement as a cultural scandal even led Freud to exaggerate the hostility of his early reception and the intensity of his early isolation. With the doctrine of resistance, Freud had imported into science the style of the avant-garde, which feeds upon rejection, outrage, and the breach of bourgeois manners. The concept of "resistance to psychoanalysis" is still in use among psychoanalysts today.The argument from resistance, however useful it may have been as a defense mechanism of psychoanalytic rhetoric, leads to a troubling theoretical question: If the truths of psychoanalysis are naturally repugnant to humankind, so much so that we have a powerful constitutional tendency to hide them from ourselves, what could have liberated Freud and his followers to unearth these unwelcome secrets from the depths of their own psyches? If we take the "resistance to psychoanalysis" as a... (shrink)

Self-Interest before Adam Smith inquires into the foundations of economic theory. It is generally assumed that the birth of modern economic science, marked by the publication of The Wealth of Nations in 1776, was the triumph of the 'selfish hypothesis'. Yet, as a neo-Epicurean idea, this hypothesis had been a matter of controversy for over a century and Smith opposed it from a neo-Stoic point of view. But how can the Epicurean principles of orthodox economic theory be (...) reconciled with the Stoic principles of Adam Smith's philosophy? Pierre Force shows how Smith's theory refutes the 'selfish hypothesis' and integrates it at the same time. He also explains how Smith appropriated Rousseau's 'republican' critique of modern commercial society, and makes the case that the autonomy of economic science is an unintended consequence of Smith's 'republican' principles. (shrink)

The field of Science and Technology Studies has long critiqued the idea that there is such a thing as a universal and singular ""Science"" that exists independently of human society, interpretation, and action. But surprisingly little attention has been paid to the colonial contexts in which the scientific endeavor has been practiced and on which scientific principles have been built. In this important book, Amit Prasad seeks to rectify this erasure, demonstrating that problematic idealized imaginaries of science, (...) scientists, and the scientific realm can be traced back to the birth of ""modern science"" during European colonialism. Such visions of science and technology have undergirded the imagination of the West (and thus its others), constructing hierarchies of technological innovation and scientific value, but also unexpectedly leaving society vulnerable to contemporary threats of misinformation and conspiracy theories, as has been strikingly evident during the COVID-19 pandemic. Far from being an indictment of STS, this rigorous book seeks to highlight such concerns to make STS engage more carefully with issues of colonialism and thus to enable readers to understand the rapidly changing global topography of science and technology today, and into the future. (shrink)

An excerpt from CHAPTER I. THE FORCES OF NATURE. You have asked me to give you an account of the opinions really held by some of those authors whose views you have seen caricatured in Punch and censured in religious periodicals. The subjects on which you specially questioned me were the speculations of Mr. Darwin, and the real or pretended discoveries of mesmerists, spiritualists, homoeopathists, and phrenologists. But a little reflection will, I think, convince you, that if I pretended to (...) give you, in a few conversations, the result of the lifelong labours of a succession of earnest and clever men, I could in reality only succeed in puzzling you, and in proving my own unfitness to act as the interpreter of any serious thinker whatever. It will be, I think, more to the purpose if I endeavour to put into your hands an end of the golden thread which, as it seems to me, binds all science together, giving us a clue through its intricate mazes, bridging over its awful chasms, and enabling us to walk fearlessly, even where we can see no light. If you like it, I will afterwards try to tell you what I believe to be the true meaning of some of the real or supposed revelations of modern investigation : but my main object will be to show you how you may, throughout your studies, make facts speak for themselves, and get help from books instead of being confused by them. In the first chapter of the Bible we read that the earth was originally without form and void. Next it is said that the "Spirit of God" moved upon the face of the waters. And throughout the Old Testament it is easy to see that the writers attributed the settling down of things in general, the ordering of the heavens, the coming up of dry land from under the sea, the clearing away of mists and vapours, and the production of life upon the earth, to the action of this Spirit (or Word) of God upon the chaos of matter. And not only so, but they evidently believed this living Word or Spirit to be continually present throughout creation, at every rising of sun or moon or star, in all cosmical changes, at every birth of man or beast, at every recovery of man or beast from sickness, in all growth, in all life, in all enjoyment; and to be at each moment the indispensable preserver of every living thing from decay.... (shrink)

This book places under sustained scrutiny some of our most basic modern assumptions about inheritance, genealogy, blood relations, and racial categories. It has at its core a deceptively simple question, one too often taken for granted: what constitutes "good" bonds among humans, and what compels us to determine them so across generations as both a physical and a metaphysical attribute? Answering this question is complex and involves a foray into a seemingly disparate array of early modern sources: from (...) adages, common law, and literature about bloodlines and bastardy to philosophical, political, and scientific discourses that both confirm and confound the "common sense" of familial, communal, national, and racial identity.  . (shrink)

This volume considers contingency as a historical category resulting from the combination of various intellectual elements – epistemological, philosophical, material, as well as theological and, broadly speaking, intellectual. With contributions ranging from fields as diverse as the histories of physics, astronomy, astrology, medicine, mechanics, physiology, and natural philosophy, it explores the transformation of the notion of contingency across the late-medieval, Renaissance, and the early modern period. Underpinned by a necessitated vision of nature, seventeenth century mechanism widely identified apparent natural (...) irregularities with the epistemological limits of a certain explanatory framework. However, this picture was preceded by, and in fact emerged from, a widespread characterization of contingency as an ontological trait of nature, typical of late-Scholastic and Renaissance science. On these bases, this volume shows how epistemological categories, which are preconditions of knowledge as “historically-situated a priori” and, seemingly, self-evident, are ultimately rooted in time. Contingency is intrinsic to scientific practice. Whether observing the behaviour of a photon, diagnosing a patient, or calculating the orbit of a distant planet, scientists face the unavoidable challenge of dealing with data that differ from their models and expectations. However, epistemological categories are not fixed in time. Indeed, there is something fundamentally different in the way an Aristotelian natural philosopher defined a wonder or a “monstrous” birth as “contingent”, a modern scientist defines the unexpected result of an experiment, and a quantum physicist the behavior of a photon. Although to each inquirer these instances appeared self-evidently contingent, each also employs the concept differently. (shrink)

To commemorate the 50th anniversary of his passing, this special book features studies on Alexandre Koyré, one of the most influential historians of science of the 20th century, who re-evaluated prevalent thinking on the history and philosophy of science. In particular, it explores Koyré’s intellectual matrix and heritage within interdisciplinary fields of historical, epistemological and philosophical scientific thought. Koyré is rightly noted as both a versatile historian on the birth and development of modern science and (...) for his interest in philosophical questions on the nature of scientific knowledge. In the 1940s and 1950s his activities in the United States established a crucial bridge between the European historical tradition of science studies and the American academic environments, and an entire generation of historians of science grew up under his direct influence. The book brings together contributions from leading experts in the field, and offers much-needed insights into the subject from historical, nature of science, and philosophical perspectives. It provides an absorbing and revealing read for historians, philosophers and scientists alike. (shrink)

This chapter poses questions about the existence and character of the Scientific Revolution by deriving its initial categories of analysis and its initial understanding of the intellectual scene from the writings of the seventeenth century, and by following the evolution of these initial categories in succeeding centuries. This project fits the theme of cross cultural transmission and appropriation -- a theme of the present volume -- if one takes the notion of a culture broadly, so that, say, seventeenth and eighteenth (...) or nineteenth century European intellectual cultures are deemed sufficiently distinct that one can speak of the "transmission" of texts and ideas from the one to the other as cross cultural. I maintain that a process of transforming and assimilating seventeenth century achievements manifests itself in two distinct cultures of interpretation, one developed by historians of philosophy, the other by scientists and historians of science. The first, following actor's categories, interprets the revolution in the seventeenth century as a philosophical displacement, partly fomented by a radical change in astronomical theory; the second, retrospectively applying the post nineteenth century sense of the term "science" to seventeenth century events, finds a "scientific" revolution, or the birth of modern science. The chapter proposes interpreting the Scientific Revolution as a revolution in natural philosophy and metaphysics. (shrink)

In recent scholarship, the science and religion debate has been historicized, revealing the novelty of the concepts of science and religion and their complex connections to secularization and the birth of modernity. This article situates this historicist turn in the history of philosophy and its connections to theology and Scripture, showing that the science and religion concept derives from philosophy's earlier tension with theology as it became an academic discipline centered in the medieval, then research university, (...) with the centrality of Scripture changing under the influence of historical criticism. Looking at Thomas Aquinas and Friedrich Schleiermacher on theology and Scripture's connection to science, it offers a new framework for theorizing science and religion as part of the history of philosophy. (shrink)

A lively and accessible introduction to the Greek and Roman origins of our political ideas In The Birth of Politics, Melissa Lane introduces the reader to the foundations of Western political thought, from the Greeks, who invented democracy, to the Romans, who created a republic and then transformed it into an empire. Tracing the origins of our political concepts from Socrates to Plutarch to Cicero, Lane reminds us that the birth of politics was a story as much of (...) individuals as ideas. Scouring the speeches of lawyers alongside the speculations of philosophers, and the reflections of ex-slaves next to the popular comedies and tragedies of the Greek and Roman stages, this book brings ancient ideas to life in unexpected ways. Lane shows how the Greeks and Romans defined politics with distinctive concepts, vocabulary, and practices—all of which continue to influence politics and political aspirations around the world today. She focuses on eight political ideas from the Greco-Roman world that are especially influential today: justice, virtue, constitution, democracy, citizenship, cosmopolitanism, republic, and sovereignty. Lane also describes how the ancient formulations of these ideas often challenge widely held modern assumptions—for example, that it is possible to have political equality despite great economic inequality, or that political regimes can be indifferent to the moral character of their citizens. A stimulating introduction to the origins of our political ideas and ideals, The Birth of Politics demonstrates how much we still have to learn from the political genius of the Greeks and Romans. (shrink)