The paper deals with the work Philosophia Sacra: Or The Principles of Natural Philosophy. Extracted from Divine Revelation, published in 1753 by the relatively unknown English clergyman Samuel Pike (circa 1717 – 1773). This work falls within the tradition of the so-called Mosaic physics, a specific Early Modern endeavor to build natural philosophy based on a literal reading of the Holy Scriptures, particularly the first chapters of the book of Genesis attributed to Moses – hence the (...) term “Mosaic.” For this reason, at the beginning of the paper, the author seeks to introduce the fundamental ideas of this movement as expressed by its key proponents, namely L. Daneau, O. Casmann, and K. Aslakssøn. In the subsequent analysis of Pike’s natural-philosophical conception, the author highlights its specific features, including obvious Newtonian influences on the one hand (Pike’s work was written about a century and a half later than the texts of the ‘founding fathers’ of Mosaic physics and must have been influenced by the contemporary discourse). On the other hand, Pike’s work exhibits strong, albeit implicit, similarities with the ideas of J. A. Comenius, another thinker associated with Early Modern Mosaic physics (and often considered its most significant representative, which are explored in the concluding part of the text. It can be said that Pike’s work appears as a remarkable and highly original culmination of the Mosaic natural philosophy tradition, combining a range of seemingly unexpected, if not outright contradictory, motifs. (shrink)

In the tense religious climate of the late Renaissance (ca. 1550-1650), traditional charges of impiety directed against Aristotle carried new weight. Many turned to alternative philosophical authorities in the search for a truly pious philosophy. Another, "most pious" solution was to ground natural philosophy on a literal reading of the Bible, especially Genesis. I examine this kind of physics, often called Mosaic, or sacred, or Christian, through the example of Johann Amos Comenius and those whom he praises as (...) predecessors in his attempt to reform physics according to the "divine light" of Scripture. In analyzing the works of these authors, I conclude that what they shared most effectively was an agenda rather than a practice. They defended the single, universal truth of a "Christian philosophy" grounded in biblical literalism against the impious excesses of philosophical naturalism, on the one hand, and against the antiphilosophical attacks of extreme theologians, on the other hand. This peculiar strand of natural philosophy, neither traditional nor "modern," needs to be included in attempts to map the complex dynamics of contemporary debates and self-presentations. -/- . (shrink)

Some early modern scholars believed that Scripture provided more certain knowledge than all secular authorities – even Aristotle – or investigating nature as such. In this paper, I analyse one such attempt to establish the most reliable knowledge of nature: the so-called Mosaic physics proposed by the Reformed encyclopaedist Johann Heinrich Alsted. Although in his early works on Physica Mosaica Alsted declares that his primary aim is proving the harmony that exists between various traditions of natural (...) philosophy, namely between the Mosaic and the Peripatetic approaches, and despite the fact that his biblical encyclopaedia of 1625 was intended to be based on a literal reading of the Bible, he never truly abandoned the Aristotelian framework of physics. What is more, in his mature encyclopaedia of 1630, he eventually openly preferred Aristotle to other natural-philosophical traditions. I argue, therefore, that Alsted’s bold vision of Mosaic physics remained unfulfilled and should be assessed as an unsuccessful project of early modern natural philosophy. (shrink)

In lieu of an abstract, here is a brief excerpt of the content:Reviewed by:The Philosophers and the Bible: The Debate on Sacred Scripture in Early Modern Thought ed. by Antonella Del Prete, Anna Lisa Schino, and Pina TotaroPiet SteenbakkersAntonella Del Prete, Anna Lisa Schino, and Pina Totaro, editors. The Philosophers and the Bible: The Debate on Sacred Scripture in Early Modern Thought. Brill's Studies in Intellectual History 333. Leiden: Brill, 2022. Pp. xiv + 303. Hardback, €135.16.This (...) volume has its origins in an international conference held in May 2019 in Rome and Viterbo. In its scope and approach, it surpasses the average volume of conference proceedings, owing to the editors' wise decision to invite additional papers to enhance its thematic coherence. Even with this expansion, they managed to get the book published within fifteen months—a remarkable achievement. Apart from chapters 12 and 13, which are in French, the volume is entirely in English. Most authors are proficient enough, but there are occasional slips, for instance, redundant definite articles ("the scripture" [61], "truths of the faith" [251]) or mistranslations ("prevent men from attacking and killing themselves" instead of "… killing each other" [87]).The generous bibliographies, one for every chapter, are a treasure trove. They are up to date and mostly well balanced. Taking into account that all but two of the authors are Italian, the literature referred to is impressively international in scope—more so than one usually sees in edited volumes, where English rules supreme. Chapters 1 and 3, which deal with Italian philosophers, have few non-Italian titles, and chapter 9 (on Pascal) few non-French titles.Textbook histories of philosophy pay little or no attention to what philosophers have said about the Bible: as a matter of course, the subject is assigned to the realm of theology and religion. As the editors rightly point out in their introduction (1–2), that is to ignore the massive presence of Scripture in Western culture. They even speak of the "biblical foundations" of early modern and contemporary thought (2). While that appraisal may seem exaggerated, they certainly have a point when they insist on the far-reaching and lasting influence of the Bible on Western thought—science and philosophy included. That the subject has been overlooked by historians of philosophy may in part be due to the academic division of labor with its rigid demarcations between disciplines and a near absolute divide between sciences and humanities. This distorts our view of the early modern period, when these qualifications had not yet been coined and demarcations between what would become separate disciplines were altogether fluid. Those who are now called "scientists" were formerly known as "natural philosophers." The present volume therefore deals not only with [End Page 325] Ficino, Hobbes, Descartes, Spinoza, Locke, Conway, Pascal, Wolff, and other thinkers now primarily classified as philosophers, but also with Galileo (though not directly addressed, "the 'Galileo affair' constitutes the background of the book" [8]), Copernicus, Kepler, and Newton, as well as with influential figures who defy our habitual classifications, for example, Biddle or Mersenne. The book boldly situates itself in what has gradually become a broad tradition of interdisciplinary scholarship, cultivated by luminaries such as Eugenio Garin, Paul O. Kristeller, Amos Funkenstein, and Anthony Grafton.The subtitle of the book, The Debate on Sacred Scripture in Early Modern Thought, may conjure up images of a historical debate among philosophers, along the lines of, say, the German Pantheismusstreit (pantheism dispute) of the 1780s. A curious aspect of the involvement of philosophers (in the broadest sense) in matters related to the Bible, however, is that the "debate" was a confrontation of philosophers with theologians, clerics, ecclesiastical and very often also civil authorities, rather than a mere philosophical dispute. This also means that individual philosophers' freedom of expression varied considerably depending on their denomination and environment. Thus, Galileo clashed head-on with the Roman Catholic Church, Descartes sought the approbation of the theologians of the Sorbonne, the Jesuits who inveighed against Pascal did so with little or no interest in the biblical text (see D'Agostino's chapter 9, 169). The Reformation took the Word of God for its foundation, so that Protestant settings (England, the Dutch Republic, and the Lutheran countries) were... (shrink)

Our aim in this study is to examine the attitude to violence expressed in the works of two leading figures in the history of Czech philosophical thought. Several scholars in the field of Comeniology have expressed the belief that not only clear parallels but also direct continuity can be traced between the views of Petr Chelčický and those of Jan Amos Comenius. To make a proper judgement as to whether Comenius and Chelčický shared identical attitudes to the question of (...) the legitimacy of violence, we focus first on Comenius’s climactic work, in which his point of view is most fully expressed. Subsequently we analyse Chelčický’s views and compare them with Comenius’s attitude. A comparison of the works of the two thinkers leads to the conclusion that on the one hand Comenius’s key opinions are much more comprehensively founded; on the other, he does not restrict himself to a critique of physical violence but also deals with the spiritual struggle. Any analogy between Chelčický and Comenius’s attitude to violence can therefore be related only to the early works of Comenius in which his concept of universal tolerance was not yet thoroughly thought through. The study therefore focuses on the issue of the development of Comenius’s concept of tolerance as well. (shrink)

Sir Isaac Newton (1642-1727) left a voluminous legacy of writings. Despite his influence on the early modern period, his correspondence, manuscripts, and publications in natural philosophy remain scattered throughout many disparate editions. In this volume, Newton's principal philosophical writings are for the first time collected in a single place. They include excerpts from the Principia and the Opticks, his famous correspondence with Boyle and with Bentley, and his equally significant correspondence with Leibniz, which is often ignored in (...) favor of Leibniz's later debate with Samuel Clarke. Newton's exchanges with Leibniz place their different understandings of natural philosophy in sharp relief. The volume also includes 'De Gravitatione', offered here in a corrected translation, which is crucial for understanding Newton's relation to his great predecessor Descartes. In a historical and philosophical introduction, Andrew Janiak examines Newton's philosophical positions and his relations to canonical figures in early modern philosophy. (shrink)

Through a consideration of the philosophical debates occurring in the Dutch and Dutch-related intellectual framework in the early modern period, in the present study some alternatives in the foundation of philosophy and science have been highlighted and analysed. In conclusion, it is time to assess them in a more systematic manner. Each alternative entails a different view on foundational arguments, which may be grouped into theological, metaphysical, and logical ones. This research reveals the essential features of a (...) philosophical milieu created by Descartes and constituting the framework for the dissemination of Newtonian science in Europe, leading to the birth of a philosophy of science as the study of the foundations, assumptions, methods, and limits of the study of natural realms. In fact, one can recognise several reasons for such foundation: on a general level, the need of providing philosophy with a secure foundation against the ‘sceptical crisis’ of the sixteenth and seventeenth centuries highlighted by Richard Popkin. More specifically, however, the foundation of Cartesian and Newtonian philosophy and science served to defend the conceptual premises of new ways of thinking in an academic context, demonstrating the validity of such new ways and rejecting the commonsensical and non-explanatory assumptions of Scholastic philosophy, and, in the case of ’s Gravesande, the speculative character of Descartes’s physics itself. (shrink)

In his monumental 1687 work, _Philosophiae Naturalis Principia Mathematica_, known familiarly as the _Principia_, Isaac Newton laid out in mathematical terms the principles of time, force, and motion that have guided the development of modern physical science. Even after more than three centuries and the revolutions of Einsteinian relativity and quantum mechanics, Newtonian physics continues to account for many of the phenomena of the observed world, and Newtonian celestial dynamics is used to determine the orbits of our (...) space vehicles. This authoritative, modern translation by I. Bernard Cohen and Anne Whitman, the first in more than 285 years, is based on the 1726 edition, the final revised version approved by Newton; it includes extracts from the earlier editions, corrects errors found in earlier versions, and replaces archaic English with contemporary prose and up-to-date mathematical forms. Newton's principles describe acceleration, deceleration, and inertial movement; fluid dynamics; and the motions of the earth, moon, planets, and comets. A great work in itself, the _Principia_ also revolutionized the methods of scientific investigation. It set forth the fundamental three laws of motion and the law of universal gravity, the physical principles that account for the Copernican system of the world as emended by Kepler, thus effectively ending controversy concerning the Copernican planetary system. The translation-only edition of this preeminent work is truly accessible for today's scientists, scholars, and students. (shrink)

Since the 1960s the integration of the history of science and the philosophy of science has been substantiated by the presence of university departments offering a curriculum of studies catering to both disciplines. At Princeton University, Charles Gillespie established the first curriculum of studies in the history and philosophy of science – henceforth HPS – in 1960, with the purpose of attracting students to the study of the history of science. In Princeton, history of science (...) was taught by John E. Murdoch, while Hilary Putnam gave courses in philosophy of science. At Indiana University it was a historian of philosophy, Norwood Russell Hanson, who established the first department of HPS, hosting the teaching of historian of science Alfred Rupert Hall. Eventually, the actual integration of history and philosophy of science was brought about by the appearance of Thomas Kuhn’s Structure of Scientific Revolutions (1962), which, drawing attention to the notion of paradigm in scientific theories, favoured the marriage between historical and philosophical analysis of science. Since 1960s, HPS has flourished, and nowadays at least five universities in the United Kingdom and sixteen in the United States offer degrees in HPS (Mauskopf/Schmaltz 2012, pp. 1–10). More recently, kindred approaches have emerged, such as the ‘integrated HPS’ (&HPS), endorsed in some international conferences, which aims at merging the two disciplines rather than offering philosophical insights into the history of science and vice versa. (shrink)

In early modern science, the struggle between feminine and masculine allegories of science was played out within fixed parameters. Whether science itself was to be considered masculine or feminine, there never was serious debate about the gender of nature, one the one hand, or of the scientist, on the other. From ancient to modern times, nature—the object of scientific study—has been conceived as unquestionably female.5 At the same time, it is abundantly clear that the (...) practitioners of science, scientists, themselves, overwhelmingly have been men.But what about science? What gender was it—as an activity and set of ideals—to have? In one tradition the answer was clear: science was a woman. This tradition, stretching back at least to Boethius’ sixth-century portrayal of Philosophy as a woman, was codified and explained in Cesare Ripa’s Iconologia, the Renaissance bible of iconography.6 In this work, Ripa portrayed each of the sciences as a woman. “Scientia”—knowledge or skill—was portrayed as a woman of serious demeanor, wearing stately robes . “Physica”—physical science—was a goddess with a terrestrial globe at her feet. Geometry was a woman holding a plumb line and compass. Astrology, too, was a woman, dressed in blue, with a crown of stars and wings signifying the elevation of her thoughts to the distant stars. With a compass in her right hand and the celestial sphere in her left, she studied the movement and symmetry of the skies. 5. See Carolyn Merchant, The Death of Nature: Women, Ecology, and the Scientific Revolution .6. Boethius describes female Philosophy as she appeared to him in a dream in his De consolatione philosophiae. See also Cesare Ripa, Iconologia , first illustrated in 1603. Londa Schiebinger is an assistant professor of history at Pennsylvania State University. Her book, “The Mind has no Sex”: Women in the Origins of Modern Science, will be published next spring. (shrink)

Sir Isaac Newton left a voluminous legacy of writings. Despite his influence on the early modern period, his correspondence, manuscripts, and publications in natural philosophy remain scattered throughout many disparate editions. In this volume, Newton's principal philosophical writings are for the first time collected in a single place. They include excerpts from the Principia and the Opticks, his famous correspondence with Boyle and with Bentley, and his equally significant correspondence with Leibniz, which is often ignored in favor (...) of Leibniz's later debate with Samuel Clarke. Newton's exchanges with Leibniz place their different understandings of natural philosophy in sharp relief. The volume also includes 'De Gravitatione', offered here in a corrected translation, which is crucial for understanding Newton's relation to his great predecessor Descartes. In a historical and philosophical introduction, Andrew Janiak examines Newton's philosophical positions and his relations to canonical figures in early modern philosophy. (shrink)

Focusing on the Astronomia Magna, the magnum opus of Theophrastus Bombast von Hohenheim, or Paracelsus, the dissertation provides a detailed look into Paracelsus ' oft-neglected and misrepresented views on the make-up of humans and the universe, and highlights the religious values fundamental to the formation, expression, and reception of his science, Robert K. Merton and Reijer Hookyaas have helpfully pointed to salient religious factors in the development of modern science, but they overemphasize seventeenth-century English Calvinism. A century (...) earlier, Paracelsus had molded a unique, influential, and thoroughly biblical and ethical system of the world, and with many of the same goals as the Puritans. Paracelsus ---whose ideas were often referred to and even incorporated by the likes of Isaac Newton, Robert Boyle, Francis Bacon, and Joan Baptista van Helmont---insisted that humans were created to research, discover, and utilize nature. ;Book I of the Astronomia Magna, highlighting the sidereal and elemental bodies of humans, is a systematic explication of natural magic, human nature, and cosmology. There are clear alchemical and Neoplatonic sources, but the discussion is rooted in Paracelsus ' Genesis exegesis. Book II---focusing on the soul and the immortal body, the latter acquired in baptism---contains a summary of Paracelsus ' soteriological and eschatological views, and reiterates Paracelsus ' eucharistic theology. Books I and II thus encapsulate Paracelsus ' universe of two analogous realms, mortal and divine---Book IV regards the demonic. ;Scholars point to the influence of Paracelsus ' theology in the seventeenth-century, but downplay its early reception. However, various sixteenth-century intellectuals eagerly produced Paracelsus ' works despite their divisive religious content, and some of his followers adopted his spiritualism, ethics, and heterodoxy. Toxites' preface to the first edition of the Astronomia Magna is largely a summary and endorsement of Paracelsus ' theology. ;Scholarly treatments of the Scientific Revolution, even within Paracelsus studies itself, fail to capture the unity of Paracelsus ' theological and medical-natural philosophical works and ideas, hence producing incomplete and flawed interpretations. Thus, it is essential to build on the insightful work of Kurt Goldammer, Hartmut Rudolph, Allen Debus, and Charles Webster, and to explore more deeply Paracelsus ' bible-based science. (shrink)

The separation of science and religion in modern secular culture can easily obscure the fact that in sixteenth- and seventeenth-century Europe ideas about nature were intimately related to ideas about God. Readers of this book will find fresh and exciting accounts of a phenomenon common to both science and religion: deviation from orthodox belief. How is heterodoxy to be measured? How might the scientific heterodoxy of particular thinkers impinge on their religious views? Would heterodoxy in religion create (...) a predisposition towards heterodoxy in science? Might there be a homology between heterodox views in both domains? Such major protagonists as Galileo and Newton are re-examined together with less familiar figures in order to bring out the extraordinary richness of scientific and religious thought in the pre-modern world. (shrink)

Isaac Newton was indisputably one of the greatest scientists in history. His achievements in mathematics and physics marked the culmination of the movement that brought modern science into being. Richard Westfall's biography captures in engaging detail both his private life and scientific career, presenting a complex picture of Newton the man, and as scientist, philosopher, theologian, alchemist, public figure, President of the Royal Society, and Warden of the Royal Mint. An abridged version of his magisterial study Never (...) at Rest, this concise biography makes Westfall's highly acclaimed portrait of Newton newly accessible to general readers. (shrink)

This article aims to present a detailed analysis of the “Christian natural philosophy” elaborated by the German humanist philosopher and theologian Otto Casmann (1562–1607) in his various works. To this end, Casmann’s general idea of philosophia Christiana is discussed and critically evaluated. Regarding natural philosophy, or physics, attention is paid mainly to topics such as cosmogony and cosmology, which Casmann promised to have developed biblically and independently of the pagan (namely Aristotelian) tradition. However, when Casmann’s natural philosophy is analyzed in (...) detail, his resolute emphasis on the literal reading of the Bible, the cornerstone of his entire concept, turns out to be problematic. Similarly, despite his resolutions, his natural‑philosophical views are, to a considerable extent, still dependent on Aristotelian terms and concepts. (shrink)

In lieu of an abstract, here is a brief excerpt of the content:Barrow and Newton E. W. STRONG As E. A. Buxrr HAS ADDUCED,Isaac Barrow (1630-1677) in his philosophy of space, time, and mathematical method strongly influenced the thinking of Newton: The recent publication of an early paper written by Newton (his De gravitatione et aequipondio fluidorum)2 affords evidence not known to Burtt of Newton's indebtedness in philosophy to Barrow, his teacher. Prior to its publication in 1962, this (...) paper was utilized by Alexandre Koyrd in his essay, "Newton and Descartes," 3 a study based on the third Horblit Lecture in the History of Science which he gave at Harvard University, March 8, 1961. Koyr8 maintains that there is a radical opposition in Newton's Principia not only to Descartes' purely scientific theories but also to the Cartesian philosophy. Yet, as he remarks, "we do not find in the Principia an open criticism of the philosophy of Descartes.... " He attributes this fact principally "to the very structure of the Principia: it is essentially a book on rational mechanics, which provides principles for physics and astronomy. In such a book there is a normal place for the discussion of Cartesian optics, but not of the conception of the relations of mind and body, and other such things." Koyrd asserts, nonetheless, that the criticism is not absent. It lurks in Newton's carefully worded definitions of fundamental concepts--those of space, time, motion, and matter--and becomes more apparent in the Optice of 1706 and in the second odition of the Principia. In support of this argument, he makes much of young Newton's unfini.~hed paper. He holds that this essay is of exceptional value "as it enables us to get some insight into the formation of Newton's thought, and to recognize that preoccupation with philosophic problems was not an external additatmentum but an integral dement of his thinking." 4 As concerns "young Newton's conception of space in its being and in its relation to God and time," Koyrd remarks that we learn from this essay The Metaphysical Foundations of Modern Physical Science (New York, 1927), p. 144. A. Rupert Hall and Marie Boas Hall, Unpublished Scientific Papers of Isaac Newton (Cambridge, 1962), Introduction, pp. 75-88; Latin text, pp. 90-121; English translation, pp. 121156. " Newtonian Studies (Harvard University Press, 1965), pp. 53-114. " Newtonian Studies, pp. 82-83. In his De gravitatione et aequipondio fluidorum, Newton is indeed engrossed with philosophic problems. With regard, however, to the announced purpose of his paper, namely, "to treat of the science of gravity and solid bodies in fluids by two methods," does Newton represent kis metaphysical "explanation of the nature of body" as an element of his science essential to its completeness7 He does not do so. At the end of his explanation he remarks: "I have already digressed enough; let us return to the main theme." He proceeds to set forth fifteen more definitions and then turns to the demonstration of two "Propositions on Non-Elastic Fluids." [155] 156 HISTORY OF PHILOSOPHY "that space is necessary, eternal, immutz~ble, and unmovable, that though we can imagine that there is nothing in space we cannot think space is not.., and that if there is no space, God would be nowhere. We learn also that all points of space are simultaneous and that, therefore, the divine omnipresence does not introduce composition in God.... " What we here learn from Newton about space in confutation of Descartes is to be found in Barrow's tenth mathematical lecture, "'Of Space, and Impenetrability." 5 In this lecture, Barrow opposes both Descartes and Hobbes. He objects, as does Newton, to the position taken by Descartes in his Principia Philosophiae, namely, "it is necessary.forMatter to be infinitely extended." He proceeds, as does Newton, to show how "very much Cartesius's great Subtility has failed him in this Case" to conclude that there is space empty of matter and distinct from magnitude from which an infinity of matter cannot be deduced. The correspondence of arguments tendered by Barrow and Newton indicates that the tenth lecture constituted a source from which Newton gleaned principal objections to Descartes' Principia Philosophiae. Although Koyr~ makes reference to Burtt's... (shrink)

Isaac Newton’s views on the mind–body relation are of interest not only because of their somewhat unique departure from popular early modern conceptions of mind and its relation to body, but also because of their connections with other aspects of Newton’s thought. In this paper I argue that (1) Newton accepted an interesting sort of mind–body monism, one which defies neat categorization, but which clearly departs from Cartesian substance dualism, and (2) Newton took the power by which (...) we move our bodies by thought alone to be a member of the family of forces that includes gravity and electricity. Time and again, Newton draws an analogy between the ultimate cause and nature of the volitional powers of mind and the ultimate cause and nature of these other forces. (shrink)

In lieu of an abstract, here is a brief excerpt of the content:Reviewed by:Buddhism and Science: Breaking New GroundAmos YongBuddhism and Science: Breaking New Ground. Edited by B. Alan Wallace. New York: Columbia University Press, 2003. 444+ xvi pp.Increasingly, the world's religious traditions are making their presence felt in the science and religion dialogue that has been dominated for a long time by Christian voices. The essays collected in this volume not only provide an introductory overview of (...) Buddhist engagements with the natural sciences during the last century, but also leave no doubts about ways in which Buddhist perspectives will be crucial to the future of the science-religion conversation. Wallace, founder and director of the Santa Barbara Institute for the Study of Consciousness ( ), has astutely pulled together fifteen quality essays (by sixteen authors) under three headings—"Historical Context" (three essays), "Buddhism and the Cognitive Sciences" (six essays), and "Buddhism and the Physical Sciences" (six essays)—and has added his own introductory essay to the volume as a whole and prefatory summaries to each of the articles.As in any collection of essays, reviewers find themselves in a catch-22: either mention each author and essay so as not to leave any out, leaving little space to interact critically with any of the material, or single out a handful of essay(ist)s to engage in more detail, risking the impression that there is a hidden agenda at work censoring the others. I have chosen to divide my impressions under four broad categories [End Page 176] within which I hope to mention all of the contributors and their main ideas, even while apologizing up front for focusing on a few more than the rest. My only excuse is that in a book of this much breadth and depth, my limited expertise cannot hope to engage each of the essays to the same degree. Others more competent than I will need to critically interact with the wide range of issues covered in this volume.My first observation regarding the essays under review is how far the Buddhist relationship with the sciences has come during the last century. The first three essays —by editor Wallace, José Cabezón (a scholar of Tibetan Buddhism with background in physics), and Thupten Jinpa (a scholar-practitioner of the Tibetan Buddhist tradition)—provide both historical overviews of the Buddhist engagement with science and models of the Buddhism-science encounter. While Wallace suggests the way of dialogue and collaboration as best suited to chart a via media between the dogma or ideology of scientistic materialism on the one hand and postmodern relativism on the other, Cabezón observes the history of Buddhist-science relations through three models: that of conflict/ambivalence (where either antagonism reigns or, more often, mutual disregard persists between the two traditions), that of compatibility/identity (where each interprets the other tradition in terms that are culturally and intellectually familiar), and that of complementarity (the idea that Buddhism and the sciences together provide a more complete epistemology for knowing a common subject). The validity of these models is confirmed by Jinpa in his overview of the Tibetan Buddhist case, beginning with the work of Gendūn Chōphel in the 1930s, and continuing in the openness of the present His Holiness the Fourteenth Dalai Lama to the findings of modern science.My second observation relates to how most of the essays in the volume demonstrate the various ways in which Buddhist perspectives can and do inform scientific inquiry on the one hand and even challenge scientific assumptions on the other. Four essays in part 2 exemplify this tendency. His Holiness shows how Buddhists can think about the mind in naturalistic and empirical terms even while remaining committed to cultivating the mind in order to accomplish mental transformation. David Galin (a neurophysiologist) brings early Buddhist views of the self into dialogue with contemporary neuropsychology and psychiatry, and suggests a new model for distinguishing between the perennially difficult concepts of person (a dynamic multileveled system constituted by a network of relations), self (the present organization of the person), and I (the self's point of view). The late Francisco Valera (a cognitive scientist) and Natalie Depraz (a specialist on... (shrink)

Newton composed several mathematical tracts which remained in manuscript form for decades. He chose to print some of his mathematical tracts in their entirety only after 1704. In this paper I will give information on the dissemination of Newton’s mathematical manuscripts before the eighteenth-century printing stage. I will not consider another important vehicle of dissemination of Newton’s mathematical discoveries, namely his correspondence with other mathematicians or with intermediaries such as Collins and Oldenburg.In a first stage, Newton’s mathematical manuscripts were rendered (...) available to a group of acolytes, who copied and transmitted them, sometimes in mutilated form. The practice of scribal publication helped Newton to establish his mathematical reputation and to form around himself a group of followers.One can divide Newton’s mathematical activity into two periods: an early analytical and modernist period in which he developed a Cartesian and Wallisian ‘new analysis’, followed by a mature synthetic period, beginning in the 1670s, in which he distanced himself from analysis in favour of geometry, from infinitesimals in favour of limits, from the analysis of the moderns in favour of the geometry of the ancients. Newton came to the conclusion that the ‘new analysis’ was not a mathematical language fit for publication.Newton, however, could not restrict himself to scribal publication of his mathematical manuscripts for too long. The priority dispute with Leibniz, the new status of Newton as undisputed master of British mathematicians and the changing canons of mathematical publication introduced by the funding of scientific academies favoured Newton’s option for the printing of his mathematical manuscripts. However, when Newton decided to print his early analytical mathematical work, he tried to modify and present it to bring it in line with the values that characterise the methodological shift of the 1670s, values that he wished to promote among his followers.Author Keywords: Isaac Newton; Manuscripts; Scribal publication; Analysis; Synthesis. (shrink)

An homage to the men and women of science, and an exposition of Einstein's place in scientific history In this fascinating collection of articles and speeches, Albert Einstein reflects not only on the scientific method at work in his own theoretical discoveries, but also eloquently expresses a great appreciation for his scientific contemporaries and forefathers, including Johannes Kepler, Isaac Newton, James Clerk Maxwell, Max Planck, and Niels Bohr. While Einstein is renowned as one of the foremost innovators (...) of modern science, his discoveries uniquely his own, through his own words it becomes clear that he viewed himself as only the most recent in a long line of scientists driven to create new ways of understanding the world and to prove their scientific theories. Einstein's thoughtful examinations explain the "how" of scientific innovations both in his own theoretical work and in the scientific method established by those who came before him. This authorized Philosophical Library book features a new introduction by Neil Berger, PhD, and an illustrated biography of Albert Einstein, which includes rare photos and never-before-seen documents from the Albert Einstein Archives at the Hebrew University of Jerusalem. "What place does the theoretical physicist's picture of the world occupy among all these possible pictures? It demands the highest possible standard of rigorous precision in the description of relations, such as only the use of mathematical language can give" -Albert Einstein, "Principles of Research" Albert Einstein (1879-1955) was born in Germany and became an American citizen in 1934. A world-famous theoretical physicist, he was awarded the 1921 Nobel Prize for Physics and is renowned for his Theory of Relativity. In addition to his scientific work, Einstein was an influential humanist who spoke widely about politics, ethics, and social causes. After leaving Europe, Einstein taught at Princeton University. His theories were instrumental in shaping the atomic age. Neil Berger, an associate professor emeritus of mathematics, taught at the University of Illinois at Chicago in the Mathematics, Statistics, and Computer Science department from 1968 until his retirement in 2001. He was the recipient of the first Monroe H. Martin Prize (1975), which is now awarded by the University of Maryland every five years for a singly authored outstanding applied mathematics research paper. He has published numerous papers and reviews in his fields of expertise, which include elasticity, tensor analysis, scattering theory, and fluid mechanics. (shrink)

Most historians of science eagerly acknowledge that the early modern period witnessed a shift from a prevailing Aristotelian, spherical, centered conception of space to a prevailing Cartesian, rectilinear, oriented spatial framework. Indeed, this shift underlay many of the important advances for which the period is celebrated. However, historians have failed to engage the general conceptual shift, focusing instead on the particular explanatory developments that resulted. This historical lacuna can be attributed to a historiographical problem: the lack of (...) an adequate unit of analysis by which to investigate the conceptual change. Here, a philosophical argument is made for representations of space as an appropriate category of historical investigation, and methods of textual interrogation are suggested to this end. Finally, two examples, taken from Aristotle and Newton, demonstrate the feasibility and importance of this project. (shrink)

The causes of tidal motions were widely debated from antiquity up to the eighteenth century. These discussions got a second wind in the early modern period, in the wake of a growing number of cosmological alternatives that challenged the dominant Aristotelian-Ptolemaic stance. The 1687 publication of Isaac Newton’s Principia Mathematica was a defining moment in the discussions and consequently made universal gravitation the most credible and generally accepted explanation. This paper investigates the aftermath of Newton’s discovery and (...) demonstrates how his understanding of tidal motion crowded out competing theories within a broader European context. My main point of reference is Roger Boscovich’s De aestu maris (1747). In his work, the leading Jesuit scholar of the time contrasted Newton’s interpretation to those of other major authorities, namely Johannes Kepler, Galileo Galilei, and René Descartes, and went on to claim the superiority of the British scientist’s achievements over anything written prior to the Principia. As this essay argues, alongside a significant body of literature produced under the umbrella of the Jesuit order, Boscovich’s De aestu maris subsequently contributed to the formation of the popular image of Newton as a “scientific hero.”. (shrink)

Drawing on past and current research in continental philosophy, Measures of Science: Theological and Technological Impulses in Early Modern Thought examines the development of certain founding issues of early modern science. Focusing on three key seventeenth-century figures--Descartes, Bacon, and Newton--and locating his argument explicitly within the approach of Alexandre Koyre, James Barry Jr. explores the philosophical, theological, and technological priorities that established the frame for the full emergence of the new science. In showing (...) how the work of these and other seventeenth-century figures led to the appearance of a dominant new view of nature and perception, Barry's book makes an important contribution to our understanding of the formative period of modern science. (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 the thirteenth through the sixteenth centuries, European philosophers were preoccupied with using their newfound access to Aristotle’s metaphysics and natural philosophy to develop an integrated account, hospitable to Christianity, of everything that was thought to exist, including God, pure finite spirits, the immaterial souls of humans, the natural world of organic objects and inorganic objects. This account included a theory of human mentality. In the sixteenth and early seventeenth centuries, first in astronomy and then, later, in physics, the (...) tightly knit fabric of this comprehensive medieval world view began to unravel. The transition from the old to the new was gradual, but by 1687, with the publication by Isaac Newton of his Principia Mathematica, the replacement was all but complete. Modern physical science had fully arrived, and it was secular. God and angels were still acknowledged. But they had been marginalized. Yet, there was a glaring omission. Theorists had yet to expand the reach of the new science to incorporate human mentality. This venture, which initially was called “moral philosophy” and came to be called “the science of human nature,” became compelling to progressive eighteenth century thinkers, just as British empiricism began to seriously challenge an entrenched Cartesian rationalism. Rationalism and Empiricism. (shrink)

The notion of a “query” occurred in legal, medical, theological and scientific writings during the early modern period. Whereas the “questionary” (from c. 1400s) sought replies from within a doctrine (such as Galenic medicine), in the 1600s the query posed open-ended inquiries, seeking empirical information from travellers, explorers and others. During the 1660s in Britain, three versions of the query (and lists of queries) emerged. Distinctions need to be made between queries seeking information via observation and those asking (...) for experimentation, and between those aiming to keep theory to one side and those that framed theoretical conjectures. My examples are drawn from the work of the Royal Society of London (founded 1660) and from some of its leading members, especially Robert Boyle, Robert Hooke and Isaac Newton. (shrink)

Early modern experimental philosophers often appear to commit to and utilise corpuscular and mechanical hypotheses. This is somewhat mysterious, for such hypotheses frequently appear to be simply assumed, which is odd for a research program which emphasises the careful experimental accumulation of facts. Isaac Newton was one such experimental philosopher, and his optical work is considered a clear example of the experimental method. Focusing on his optical investigations, Walsh identifies three roles for hypotheses. First, Newton introduces a (...) hypothesis to explicate his abstract theory. The purpose here is primarily to improve understanding or uptake of the theory. Second, he uses a hypothesis as a platform from which to generate some crucial experiments to decide between competing accounts. The purpose here is to suggest experiments in order to bring a dispute to empirical resolution. Third, he uses a hypothesis to suggest an underlying physical cause, which he then operationalises and represents abstractly in his formal theory. The second and third roles are related in that they are both cases of scaffolding: hypotheses provide a temporary platform from which further experimental work and/or theorising can be carried out. In short, the entities and processes included in Newton’s optical hypothesis are not simply assumed hypothetical posits. Rather, they play instrumental roles in Newton’s experimental philosophy. (shrink)

Contemporary discussions of information overload have important precedents during the years 1550-1750. An examination of the early modern period in Europe, including work of humanism, science, theology, and popular encyclopedias demonstrates that perceptions of information overload have as much to do with the ways in which knowledge is represented as with any quantitative measurers in the production of new texts, ideas, or facts. Key figures in this account include Francis Bacon, Conrard Gesner, Francesco Sacchini, Johann Heinrich Alsted, (...) Casoar Bauhin, Rempert Dodeones, Samuel Bochrt, Johann Jakob Scheuchzer, John Wilkins, Jonathan Swift, Ephraim Chambers, Smauel Johnson, Denis Diderot, and Louis-Sébastian Mercier. (shrink)

Experimental philosophy was an exciting and extraordinarily successful development in the study of nature in the seventeenth century. Yet experimental philosophy was not without its critics and was far from the only natural philosophical method on the scene. In particular, experimental philosophy was contrasted with and set against speculative philosophy and, in some quarters, was accused of tending to irreligion. This volume brings together ten scholars of early modern philosophy, history and science in order to shed new (...) light on the complex relations between experiment, speculation and religion in early modern Europe. The first six chapters of the book focus on the respective roles of experimental and speculative philosophy in individual seventeenth-century philosophers. They include Francis Bacon, Robert Boyle, Margaret Cavendish, Thomas Hobbes, John Locke and Isaac Newton. The next two chapters deal with the relation between experimental philosophy and religion with a special focus on hypotheses and natural religion. The penultimate chapter takes a broader European perspective and examines the paucity of concerns with religion among Italian natural philosophers of the period. Finally, the concluding chapter draws all these individuals and themes together to provide a critical appraisal of recent scholarship on experimental philosophy. (shrink)

In order to study “physics before Newton,” it is necessary to have at least a general idea what the terms ‘physics’ or ‘natural philosophy’ actually mean in a medieval and early modern context. Now, defining the medieval and early modern usage of the terms ‘physics’, ‘natural philosophy’, and their equivalents is no small beer. So far, the only scholar to have found the courage to embark upon this enterprise is Andrew Cunningham. He tries to make the (...) case that natural philosophy was an essentially “God oriented,” hence inherently theological discipline. Natural philosophy was “about God and His creation.” It did not promote knowledge of nature as a goal in itself, but as a means to acquire insight into God and His creation. According to Cunningham, this fundamentally religious agenda still dominated even Isaac Newton’s Principia Philosophiae Naturalis Mathematica, as is testified by passages such as the famous General Scholium to the second edition. (shrink)

During high summer 1721, while rioters and bankrupts gathered outside Parliament, Robert Walpole's new ministry forced through a bill to clear up the wreckage left by the stock-market crash, the South Sea Bubble, and the visionary projects swept away when it burst. In early August the President of the Royal Society Isaac Newton, a major investor in South Sea stock, and the Society's projectors, learned of a new commercial scheme promising apparently automatic profits, a project for a perpetual (...) motion. Their informants were a young Viennese courtier Joseph Emmanuel Fischer von Erlach, a contact of Desaguliers recently engaged in industrial espionage in northern England, and the Leiden physics professor Willem 'sGravesande, who had visited London five years earlier. They reported that they had been summoned to a remarkable series of demonstrations in the castle of Weissenstein, the seat of the Landgrave of Hesse-Kassel. In a carefully guarded room of the castle there was set up a hollow wooden wheel covered in oilcloth, about 12 feet in diameter and 18 inches thick on an axle 6 feet in length. Its designer, a Saxon engineer and clockmaker Johann Bessler, who travelled Germany under the name Orffyreus, had been in Kassel for four years, published schemes for perpetual motion and been appointed commercial councillor. The Landgrave, well-known as a patron of advanced engineering schemes, commissioned him to build a new machine and put it on show before expert witnesses (Figure 1). (shrink)

This paper explores the various meanings of precision during the early modern period in Europe. In contrast with existing literature focused on assessing the precision of early instruments, this study delves into the intended significance of the term ‘precision’ as understood by historical figures such as J. Stöffler, P. Nunes or F. Mordente. By analysing a selection of instruments equipped with scales, both in their physical form and as they are described in instrument texts, several facets of (...) precision emerge. Some findings demonstrate that the precision of scales can be enhanced through corrections obtained from tables. In other cases, visual estimation is substituted with a method for obtaining values of multiple sexagesimal places. Furthermore, certain instruments designed to represent theoretical concepts achieve greater precision by incorporating the most intricate details of these notions. This investigation into lesser-known meanings of precision underscores the need of comprehensively exploring the concepts, the practices and the terminology surrounding precision that were in use over the fifteenth and sixteenth centuries. (shrink)

In lieu of an abstract, here is a brief excerpt of the content:Journal of the History of Philosophy 41.2 (2003) 273-274 [Access article in PDF] Christoph Lüthy, John E. Murdoch, and William R. Newman, editors. Late Medieval and Early Modern Corpuscular Matter Theories. Leiden: Brill, 2001. Pp. viii + 610. Cloth, $186.00. The nineteen papers of this weighty (handsomely produced, but expensive) volume are mostly devoted to the views of one thinker or group of persons on "corpuscularism" (see (...) 17ff.), in either physics or mathematics, with few synthetic or diachronic studies. Only a quarter of the volume is devoted to the medieval period: Danielle Jacquart on minima in the Salerno school of medicine (twelfth century); the late George Molland on Roger Bacon's and Grosseteste's "corpuscular tendencies"; Charles Lohr on Ramon Lull; John Murdoch on minima naturalia in the medieval and Renaissance periods; and the greater part of William Newman's study of corpuscularian conceptions in "Aristotelian alchemy" from Geber to Sennert. The early-modern part includes studies on mostly expected figures: Francesco Patrici, Giordano Bruno, the Northumberland circle, Francis Bacon, David Gorlaeus (a little-known Dutch theology student; 1591-1612, sic), Daniel Sennert, Honoré Fabri, Galileo, Gassendi, Charleton, Boyle, Locke, and Homberg. Alan Gabbey more generally distinguishes different patterns of explanations in mechanical philosophy.As far as I can judge, the authors are knowledgeable and competent, and the studies make important contributions. But just because this is a high-quality volume produced with the ambition of making a step toward rewriting the history of a major chapter in the history of science, its two significant and principled deficiencies must be pointed out.The volume follows the intention of "show[ing] the debt of early-modern matter theory to previous traditions and thereby [explaining] its bewildering heterogeneity" (back cover). Now, the study of the corpuscular traditions in the pre-modern period is certainly an important desideratum (although this volume again attends chiefly to the early modern corpuscularians). But the motivation and perspective here announced—the medieval period [End Page 273] is to be studied because early modern science is indebted to it—are astoundingly Whiggish. Worse: the study of the entire Arabic-Islamic tradition is dismissed, on the grounds that "Islamic atomism does not seem to have been of any influence upon Christian fourteenth-century atomism" (8): this is not only Whiggism, but also frank and explicit euro- and Christian-centrism, which in the beginning of the twenty-first century is simply stunning. The method amusingly consists in affirming the consequent: presupposing that "Islamic atomism" did not influence the West and early-modern science, no scholar was asked to examine whether or not this was indeed the case, with the congenial result that the volume seemingly confirms the initial presupposition. Q.E.D. Similarly and no less regrettably, the fact that (ps.-) Geber's Summa Perfectionis is not, as Lasswitz had thought, the translation of an Arabic work is here used as grounds on which to dismiss altogether his claim concerning the importance of the Arabic input (13, but see also 293). This way, incomprehension between civilizations is reinforced instead of being reduced, and I believe we did not need September 11 to know this.The thusly dismissed Mu'tazilite school of Islamic theology had important repercussions in Judaism, so that referring to it as "Islamic atomism" is misleading (see notably Hagai Ben-Shammai, "Studies in Karaite Atomism," Jerusalem Studies in Arabic and Islam 6 [1985]: 243-93). The volume's forty-page cumulative bibliography, for which the editors are to be congratulated, reflects the volume's parochial viewpoint: H. A. Wolfson's important The Philosophy of the Kalam (Cambridge, MA: Harvard University Press, 1976), with some 150 pages on atomism, is not included; nor is the (English version of the) landmark study by the late S. Pines, Studies in Islamic Atomism (Jerusalem: The Magnes Press, 1997; the original 1936 German version is mentioned). Wolfson's study, incidentally, shows that the editors' presupposition (8) that the Kalâm tradition could have influenced the West only via the Latin translation of Maimonides' Guide of the Perplexed is unwarranted, for Isaac... (shrink)

Modernity seemed to be the autumn of eternity. The secularization of European culture provided little sustenance to the concept of eternity with its heavy theological baggage. Yet, our hero would not leave the stage without an outstanding performance of its power and temptation. Indeed, in the first three centuries of the modern period – the subject of the third chapter by Yitzhak Melamed - the concept of eternity will play a crucial role in the great philosophical systems of the (...) period. The first part of this chapter concentrates on the debate about the temporality of God. While most of the great metaphysicians of the seventeenth century – Suarez, Spinoza, Malebranche, and Leibniz – ascribed to God eternal, non-temporal, existence, a growing number of philosophers conceived God as existing in time. For Newton, God’s eternity was simply the fact that “He was, he is, and is to come.” A similar view of God as being essentially in time was endorsed by Pierre Gassendi, Henry More, Samuel Clarke, Isaac Barrow, John Locke, and most probably Descartes as well. In the second part of the chapter we study the concept of eternal truth, and its relation to the emerging notion of Laws of Nature. The third part of the chapter explicates Spinoza’s original understanding of eternity as a modal concept. For Spinoza, eternity is a unique kind of necessary existence: it is existence that is self-necessitated (unlike the existence of other things whose necessity derives from external causes). Eternity is the existence of God or the one substance. Yet, Spinoza claims that if we conceive finite things adequately - “sub specie aeternitatis” – as nothing but modes flowing from the essence of God, even finite things (like our minds) can take part in God’s eternity. The fourth and final part of the chapter is mostly focused on the reception of Spinoza’s original conception of eternity by Leibniz and other eighteenth century philosophers. (shrink)

The Natural Philosophy of Jan Bayer The main focus of this study is a reconstruction of the natural philosophy of the early modern Prešov's scholar Jan (Johannes) Bayer (1630–1674), with special regard to its Mosaic profile. After a critical reading of the research done on Bayer up to this point, the author concludes that Bayer’s natural-philosophical work, as such, has not yet been satisfactorily analyzed, nor has its connection to its supposedly two most important sources, Francis (...) Bacon and Jan Amos Comenius, been sufficiently explored. The study therefore concentrates on a critical analysis of Bayer’s interpretation of creation and his natural history, which are then both situated in the philosophical context of their time. The author then notes that although Bayer’s project of erecting an original and on the (especially Aristotelian) tradition independent Mosaic natural philosophy ended in failure, the thinker’s work can be assessed as a valuable attempt to synthesize Baconian and Comenian motifs while at the same time reflecting broader intellectual contexts of the period. (shrink)

Insofern Erziehung auf die Zukunft gerichtet ist, bedarf sie der Hoffnung. Und wer nicht hofft, kann auch nicht erziehen. Doch die nicht selten euphorisch zu nennende Erwartung, dass man von einer wissenschaftlich begründeten Erziehung auch eine entscheidende Weltverbesserung erhoffen könne, dürfte wesentlich eine Erfindung der anhebenden Neuzeit gewesen sein. Die übliche pädagogische Ideengeschichte sieht in Comenius zumeist einen vormodernen Gegenpol zum technisch-zivilisatorischen Denken der Neuzeit – und übersah damit notwendig wesentliche Kontinuitäten. Denn es war Comenius, der mit seiner pansophischen Systematik (...) zuerst die Hoffnung verband, eine solcherart durchkonstruierte Erziehungsmaschine begründet zu haben, dass eine wahrhaft pansophisch ausgerichtete Erziehung auch einen unfehlbaren Erziehungserfolg verbürgen müsse. Ein mentalitätsgeschichtlicher Zugang vermag dabei zu zeigen, wie sich die pädagogischen Hoffnungen des Comenius entwickelt und zeitgleich mit der pansophischen Systematik ausgeprägt haben. _Je durchdachter die Systematik wurde, desto unfehlbarer sollte auch die Erziehung werden._ Mit einer vollkommen realisierten pansophischen Erziehung würden sich also alle Hoffnungen auf eine Weltverbesserung _erfüllen_; alles, was bis dahin zukunftsgerichtete Hoffnung war, würde also mit der Pampaedia zur erfüllten Gegenwart werden. Von der menschlichen _resignation_ der Frühschriften über die gott-menschliche _cooperatio _der pansophischen Programmschriften führt solcherart der Weg zur intendierten _omnipotentia _des Menschen, an welcher schließlich auch die Erziehung teilhaben soll. Unter der Rücksicht der longue durée ist Comenius damit nicht nur _ein_, sondern letztlich _der _Begründer der pädagogischen Moderne. Seit Comenius produziert wissenschaftlich-systematisches Denken immer neue Erziehungshoffnungen, die sich sodann durch gesellschaftliche Erwartungshaltungen selbstlaufend _re_-produzieren und die Nachfrage nach pädagogischer Wissenschaftlichkeit wiederum steigern. Doch die Welt hat sich bis heute bekanntlich nicht verbessern lassen – trotz einer über 350 Jahre alten Tradition wissenschaftlich begründeter Pädagogik. (shrink)

I explore how the nature, scope, and limits of the knowledge obtained in orbital dynamics has changed in recent years. Innovations in the design of spacecraft trajectories, as well as in astronomy, have led to new logics of theory-testing—that is, new research methodologies—in orbital dynamics. These methodologies—which combine resonance overlap theories, numerical experiments, and the implementation of space missions—were developed in response to the discovery of chaotic dynamical systems in our solar system. In the past few decades, they have replaced (...) the methodology that dominated orbital research in the centuries following Newton's Principia. As a result, the kind of knowledge achieved by orbital research has changed: we can know how orbiting bodies in chaotic systems behave, but only over sufficiently short time scales; and we can reliably measure those temporal limitations, using Lyapunov time. (shrink)

The paper aims to introduce the encyclopaedic project presented by the reformed philosopher and theologian Johann Heinrich Alsted and study it as one of the possible sources of the pansophism of the Czech philosopher, theologian and educational reformer Jan Amos Comenius. For this reason, the author first briefly describes the genesis, development and structure of Alsted’s encyclopaedic work with a special focus on his mature and monumental Encyclopaedia septem tomis distincta. The crucial part of the paper is devoted to (...) comparing Alsted’s and Comenius’s conceptions of metaphysics, physics and other important fields of their shared interest. The author concludes that Comenius was undoubtedly influenced by Alsted in structural and terminological matters; furthermore, that both Alsted and Comenius inclined to base their philosophy of nature on so-called Mosaic physics and tended to understand metaphysics as a primary science not only in view of its dignity, but also with regard to its place in the system of sciences and in the curriculum. (shrink)

This book brings together leading scholars in the history of science, history of universities, intellectual history, and the history of the Royal Society, to honor Professor Mordechai Feingold. The essays collected here reflect the impact Feingold's scholarship has had on a range of fields and address several topics, including: the dynamic pedagogical techniques employed in early modern universities, networks of communication through which scientific knowledge was shared, experimental techniques and knowledge production, the life and times of (...) class='Hi'>Isaac Newton, Newton's reception, and the scientific culture of the Royal Society. Modeling the interdisciplinary approaches championed by Feingold as well as the essential role of archival studies, the volume attests to the enduring value of his scholarship and sets a benchmark for future work in the history of science and its allied fields. (shrink)

Johannes de Sacroboscos (c. 1195–c. 1256) De sphaera, eine Einführung in die Kosmologie aus dem 13. Jahrhundert, war mit über 320 Drucken das am häufigsten edierte, kommentierte oder adaptierte astronomisch-kosmologische Handbuch der Frühen Neuzeit. Während die Rezeption und Verbreitung dieses Werkes im 16. und 17. Jahrhundert bereits vielfach untersucht wurden ist bisher übersehen worden, dass diese vermeintlich unproblematischen Sphaera-Textbücher auch vielfach Gegenstand der katholischen Zensur wurden, obwohl sie gerade eine Kosmologie enthielten, die Katholiken als Bollwerk gegen den aufkommenden Kopernikanismus (...) betrachteten. Vorliegender Aufsatz untersucht erstmals die Dynamik und Motive der zahlreichen präventiven und posthumen Zensuren der römischen und iberischen Index- und Zensurorgane mit Bezug auf diesen Kosmologietraktat. Von protestantischen Autoren verfasste Kommentare zur Sphaera waren zwar prinzipiell verdächtig, wurden aber selten pauschal verboten. Vielmehr wurden sie aufgrund ihres wissenschaftlichen Wertes meist genehmigt, nachdem geringfügige, theologiebezogene Expurgationen durchgeführt worden waren. Der Kommentar (1550) des katholischen Autors Mauro da Firenze (1493–1556) wurde hingegen wiederholt und prinzipiell verboten, weil er theologisch bedenkliche Gedanken enthielt. Die hier präsentierte Fallstudie soll zum einen die Wissensdynamik der frühneuzeitlichen Sphaera-Tradition aus einem neuen Blickwinkel beleuchten, und zwar dem der Buchzensur. Zum anderen gewährt ein buchbezogener Längsschnitt Einblicke in die Ideologie und Praktiken der katholischen Buchzensur, wodurch auch die bekanntermaßen problematische Beziehung von Wissen und Religion in der vormodernen Zeit im Lichte einer Konfessionalisierung der Wissenschaften erscheint. (shrink)

In lieu of an abstract, here is a brief excerpt of the content:Journal of the History of Philosophy 40.4 (2002) 549-550 [Access article in PDF] Book Review The Millenarian Turn: Millenarian Contexts of Science, Politics, and Everyday Anglo-American Life in the Seventeenth and Eighteenth Centuries James E. Force and Richard H. Popkin, editors. The Millenarian Turn: Millenarian Contexts of Science, Politics, and Everyday Anglo-American Life in the Seventeenth and Eighteenth Centuries. Vol. 3 of Millenarianism and Messianism in (...) class='Hi'>Early Modern European Culture. Dordrecht: Kluwer Academic Publishers, 2001. Pp. xxv + 190. Cloth, $85.00. In the late 1960s and early 1970s, a significant body of scholars called attention to the idea of the millennium in English thought during the seventeenth century. These scholars argued that, especially during the epoch of the Civil Wars and Commonwealth, 1640 to 1660, religious speculation that history was moving toward its imminent consummation in a thousand-year reign of Christ exercised powerful influence on English politics and society, both in England itself and in colonial New England. To a lesser extent, scholars also noted the persistence of millennial anticipation after the Restoration, including speculation by mathematicians and scientists such as Isaac Newton.Richard H. Popkin, in addition to his well-known work on the history of skepticism, has played an important role in fostering and contributing to continued scholarship on millenarian and messianic ideas in the early modern era. In The Millenarian Turn: Millenarian Contexts of Science, Politics, and Everyday Anglo-American Life in the Seventeenth and Eighteenth Centuries, Popkin collaborates with James E. Force to publish eleven papers from a 1998 conference at the William Andrews Clark Memorial Library, UCLA. The book interprets the work of biblical exegetes, theologians, and scientists in the two centuries from 1600 to 1800 and places millenarian ideas in such varied contexts as Whig politics, the production of almanacs, Jewish-Christian relations, and early modern theories of geological history.The essays that comprise The Millenarian Turn are most successful when they reconstruct the millennial ideas of particular thinkers, relate these ideas to other aspects of a given individual's thought, and trace the revision of millennial ideas through successive generations. For example, Sarah Hutton of the University of Hertfordshire carefully describes the influential commentary on the Book of Revelation by the Cambridge biblical scholar Joseph Mede (1586-1638), in order to demonstrate the paradoxical point that Mede's theories were appropriated for dramatically different political and ecclesiastical purposes by Puritan radicals and by Church of England apologists. Margaret J. Osler of the University of Calgary shows that the physicist and chemist Robert Boyle (1627-1691) was not only preoccupied with questions about the extent and limitations of human knowledge, but also consistently extended these questions into his views on the afterlife, in which he identified heaven with enlarged capacities for knowing the beauty and harmony of the cosmos. And Reiner Smolinski of Georgia State University expertly traces the series of exegetical and theological shifts from early seventeenth-century millenarians to the New England minister Cotton Mather (1663-1728), who became "the first American to develop a fully coherent premillennialist system in the modern sense" organized around the idea that Christ's return at the beginning of the millennium would purify the world from "wickedness, death, and destruction" (166).As these three examples suggest, The Millenarian Turn makes an important contribution through the chronological span of its essays. Chapters usefully describe the principal millenarian exegetes of the early seventeenth century (Thomas Brightman, Joseph Mede, J. H. Alsted), but nine of the book's eleven chapters focus on the continued vitality of millenarian ideas after 1660. In this regard, the book stakes out an important agenda for future scholarship on the cultural history of millenarian and messianic beliefs and movements.At the same time, it must be said that Force, Popkin, and their colleagues could have done more to explore the cultural work done by millenarianism in the seventeenth and eighteenth centuries. Having provided extensive evidence of the... (shrink)

Analogies between hearing and seeing already existed in ancient Greek theories of perception. The present paper follows the evolution of such analogies until the rise of 17th century optics, with due regard to the diversity of their origins and nature but with particular emphasis on their bearing on the physical concepts of light and sound. Whereas the old Greek analogies were only side effects of the unifying concepts of perception, the analogies of the 17th century played an important role in (...) constructing optical theories by imitation of acoustic theories, or vice versa. This transition depended on several factors including the changing relations between optics, music, mathematics, and physics, the diversity of early modern concepts of sound, and the rise of a new physics based on experimentation and mechanical explanation. (shrink)

Analogies between hearing and seeing already existed in ancient Greek theories of perception. The present paper follows the evolution of such analogies until the rise of 17th century optics, with due regard to the diversity of their origins and nature but with particular emphasis on their bearing on the physical concepts of light and sound. Whereas the old Greek analogies were only side effects of the unifying concepts of perception, the analogies of the 17th century played an important role in (...) constructing optical theories by imitation of acoustic theories, or vice versa. This transition depended on several factors including the changing relations between optics, music, mathematics, and physics, the diversity of early modern concepts of sound, and the rise of a new physics based on experimentation and mechanical explanation. (shrink)