In the year 1889 Sofya Vasilievna Kovalevskaya, Profes- sor of Mathematics at the University of Stockholm, pub- lished her recollections of growing up in mid-nineteenth century Russia. Professor Kovalevskaya was already an international celebrity, and partly for the wrong reasons: less as the distinguished mathematician she actually was than as a "mathematical lady"-a bizarre but fascinating phenomenon.* Her book was an immediate success. She had written it in Russian, but its first publication was a translation into Swedish, the language of her adopted homeland, where it appeared thinly disguised as a novel under the title From Russian Ltfe: the Rajevski Sisters (Sonja Kovalevsky. Ur ryska lifvet. Systrarna Rajevski. Heggstrom, 1889). In the following year the book came out in Russia in two *"My gifted Mathematical Assistant Mr. Hammond exclaimed ...'Why, this is the first handsome mathematical lady I have ever seen!'" Letter to S. V. Kovalevskaya from].]. Sylvester, Professor of Mathe- matics, New College, Oxford, Dec. 25, 1886.

This volume addresses the history and epistemology of early modern cosmology. The authors reconstruct the development of cosmological ideas in the age of 'scientific revolution' from Copernicus to Leibniz, taking into account the growth of a unified celestial-and-terrestrial mechanics. The volume investigates how, in the rise of the new science, cosmology displayed deep and multifaceted interrelations between scientific notions (stemming from mechanics, mathematics, geometry, astronomy) and philosophical concepts. These were employed to frame a general picture of the universe, as well as to criticize and interpret scientific notions and observational data. This interdisciplinary work reconstructs a conceptual web pervaded by various intellectual attitudes and drives. It presents an historical-epistemological unified itinerary which includes Copernicus, Kepler, Galileo, Descartes, Huygens, Newton and Leibniz. For each of the scientists and philosophers, a presentation and commentary is made of their cosmological views, and where relevant, outlines of their most relevant physical concepts are given. Furthermore, the authors highlight the philosophical and epistemological implications of their scientific works. This work is helpful both as a synthetic overview of early modern cosmology, and an analytical exposition of the elements that were intertwined in early-modern cosmology. This book addresses historians, philosophers, and scientists and can also be used as a research source book by post-graduate students in epistemology, history of science and history of philosophy.

This is the epic, true and long overdue story of the young explorer who put forward the first ever case for the creation of a new species, providing what Charles Darwin called the "beautiful proof" for Natural Selection. The major discovery of Batesian Mimicry was developed from Bates's fascinating 11-year journey and study of butterflies in the Amazon rainforest. He noted how certain animals adopt the look of others to deceive predators and gain an advantage to survive. Little known to the public, Bates made other crucial contributions to biology: he collected over 14,000 specimens, of which over 8,000 were new to science at the time. He went on to become the administrator for the Royal Geographical Society and transformed it into an institution which combined exploration with academic research, and was responsible for placing geography on the school curriculum. This important book reassesses Bates's life and finally places both the man and his work in their rightful place alongside the other greats.

Although the Jet Propulsion Laboratory in Pasadena, California, has become synonymous with the United States' planetary exploration during the past half century, its most recent focus has been on Mars. Beginning in the 1990s and continuing through the Mars Phoenix mission of 2007, JPL led the way in engineering an impressive, rapidly evolving succession of Mars orbiters and landers, including roving robotic vehicles whose successful deployment onto the Martian surface posed some of the most complicated technical problems in space flight history. In Exploration and Engineering, Erik M. Conway reveals how JPL engineers' creative technological feats led to major breakthroughs in Mars exploration. He takes readers into the heart of the lab's problem-solving approach and management structure, where talented scientists grappled with technical challenges while also coping, not always successfully, with funding shortfalls, unrealistic schedules, and managerial turmoil. Conway, JPL's historian, offers an insider's perspective into the changing goals of Mars exploration, the ways in which sophisticated computer simulations drove the design process, and the remarkable evolution of landing technologies over a thirty-year period.

"A scientific opinion is one which there is some reason to believe is true; an unscientific opinion is one which is held for some reason other than its probable truth". One of Russell's most important books, this early classic on science illuminates his thinking on the promise and threat of scientific progress. Russell considers three questions fundamental to an understanding of science: the nature and scope of scientific knowledge, the increased power over nature that science affords, and the changes in the lives of human beings that result from new forms of science. With customary wit and clarity, Russell offers brilliant discussions of many major scientific figures, including Aristotle, Galileo, Newton and Darwin. Unavailable for many years, this book should prove interesting reading for Russell followers and anyone interested in popular science and philosophy.

Kepler's Physical Astronomy is an account of Kepler's reformulation of astronomy as a physical science, and of his successful use of (incorrect) physics as a guide in his astronomical discoveries. It presents the only reliable account of the internal logic of Kepler's so-called first and second laws, showing how and to what extent Kepler thought he had derived them from his physical principles. It explains for the first time Kepler's attempt to use an obscure discovery of Tycho Brahe to unify and confirm all of his own physical theories. It also describes the intricate (and neglected) theory which Kepler developed to account for the additional anomalies needed for the theory of the moon.

In this volume Pierre Duhem first gives an overview of 19th century electricity and magnetism. Next, he applies his keen historical, philosophical, and physical intuition to critiquing Maxwell's theories, especially his electromagnetic theory of light and the ad hoc introduction of displacement current, which he considers too much a product of the "esprit de geometrie" than the "esprit de finesse," as Pascal calls it. In this book, Duhem is guided by the principle that a theory that offers contradictions, even if the theory is posed by a genius, needs to be analysed and discussed until a clear distinction can be made between the propositions likely to be logically demonstrated and statements that offend logic and which must be transformed or rejected. Furthermore, Duhem felt, in criticizing such a theory one must guard against narrowness of mind and petty corrections which would make one forget the merit of the inventor; and, more importantly, one must guard against the blind superstition which, for admiration of the author, would hide the serious defects of the work. He is not so great a genius that he surpasses the laws of reason. Pierre Duhem (1861-1916), chairman of theoretical physics at Bordeaux in 1984-1916, is well-known for his works in the history and philosophy of science.

It was not long ago that phrenology was commonly dismissed with amused contempt. However, recent scholarship now views it as one of the most significant, if curious, social and intellectual manifestations of the nineteenth century. It is seen as having impinged on virtually every aspect of life, thought and belief and is regarded as having contributed instrumentally to developments in anthropology, criminology, medicine, psychiatry and education. Many eminent figures of the period are also now appreciated as having seriously occupied themselves with phrenology, from sociologists Comte and Spencer to novelists such as Eliot and Balzac. This set of eight volumes draws together a wealth of material crucial to the intellectual debate over phrenology, both as a branch of mental physiology and as a contribution to the history of philosophy. The articles selected represent the variety of different views throughout the nineteenth century, both pro and anti-phrenology.

This book illuminates how Berkner became a model that produced the scientist/advisor/policymaker that helped build post-war America. It does so by providing a detailed account of the personal and professional beliefs of one of the most influential figures in the American scientific community; a figure that helped define the political and social climates that existed in the United States during the Cold War.

Women engineers have been in the public limelight for decades, yet we have surprisingly little historically grounded understanding of the patterns of employment and education of women in this field. Most studies are either policy papers or limited to statistical analyses. Moreover, the scant historical research so far available emphasizes the individual, single and unique character of those women working in engineering, often using anecdotal evidence but ignoring larger issues like the patterns of the labour market and educational institutions.
Richly illustrated, "Crossing Boundaries, Building Bridges" offers answers to the question why women engineers have required special permits to pass through the male guarded gates of engineering and examines how they have managed this. It explores the differences and similarities between women engineers in nine countries from a gender point of view. Through case studies the book considers the mechanisms of exclusion and inclusion of women engineers f

Romanticism in all its expression communicated a vision of the essential interconnectedness and harmony of the universe. The romantic concept of knowledge was decidedly unitary, but, in the period between 1790 and 1840, the special emphasis it placed on observation and research led to an unprecedented accumulation of data, accompanied by a rapid growth in scientific specialization. An example of the tensions created by this development is to be found in the scientists' congresses which attempted a first response to the fragmentation of scientific research. The problem concerning the unitary concept of knowledge in that period, and the new views of the world which were generated are the subject of this book. The articles it contains are all based on original research by an international group of highly specialized scholars. Their research probes a wide range of issues, from the heirs of Naturphilosophie, to the life sciences', and to the debate on Baconian Sciences', as well as examining many aspects of mathematics, physics and chemistry. History of philosophy and history of science scholars will find this book an essential reference work, as well as all those interested in 19th century history in general. Undergraduate and graduate students will also find here angles and topics that have hitherto been largely neglected.

This book examines the Franciscan alchemist Roger Bacon's (1220-1292) interest in the role of alchemy in medicine, and how this interest connected with the thirteenth-century milieu in which he was writing. Though twelfth-century Latin alchemy had largely been concerned with transmuting base metals into noble ones, Bacon believed that the natural principles taught in alchemy would be better used in medicine. In an age where many physicians were theorizing about ways to prevent the effects of aging, Bacon held that combining alchemy and humoral medicine would allow one to extend their life by decades, even centuries. By examining Bacon's alchemical, medical, and mathematical works, this book argues that Bacon combined a number of sources to create a unique plan for prolonging human life. His understanding of disease and aging was ultimately Galenic in nature, and his understanding of how pharmaceuticals work can be traced back to his mathematical theories, especially that of the multiplication of species. The book provides a new system for organizing Bacon's alchemically-produced medicines, and explains what Bacon saw as the difference between each, and how they could have different physiological effects. Bacon is situated within the thirteenth-century contexts in which he was writing - that of the university-educated and newly professionalized medical practitioners, who were invested in finding ways to extend human life; and the Franciscan order, with their understanding of the innate goodness of the physical body, the resurrection, and corporeal union with God. Filling a major lacuna in scholarship on the history of medieval medical writings, this book provides vital reading for historians of medicine, pre- and early modern European science, and medieval philosophy and religion.

Women engineers have been in the public limelight for decades, yet we have surprisingly little historically grounded understanding of the patterns of employment and education of women in this field. Most studies are either policy papers or limited to statistical analyses. Moreover, the scant historical research so far available emphasizes the individual, single and unique character of those women working in engineering, often using anecdotal evidence but ignoring larger issues like the patterns of the labour market and educational institutions.
Crossing Boundaries, Building Bridges offers answers to the question why women engineers have required special permits to pass through the male guarded gates of engineering and examines how they have managed this. It explores the differences and similarities between women engineers in nine countries from a gender point of view. Through case studies the book considers the mechanisms of exclusion and inclusion of women engineers.

This open access book presents a new translation, interpretation and analysis of selected passages from the so-called Mohist Canon, a Chinese text from ca. 300 BCE, and discusses the role of the text in the world history of science, arguing that it represents an early emergence of theoretical, systematized knowledge that is independent from parallel developments in ancient Greece. It is aimed at historians of science, of knowledge and of philosophy, and generally at readers interested in these topics from an intercultural perspective and particularly with respect to China.

Since the origin of the modern sciences, our views on discovery and creativity had a remarkable history. Originally, discovery was seen as an integral part of methodology and the logic of discovery as algorithmic or nearly algorithmic. During the nineteenth century, conceptions in line with romanticism led to the famous opposition between the context of discovery and the context of justification, culminating in a view that banned discovery from methodology. The revival of the methodological investigation of discovery, which started some thirty years ago, derived its major impetus from historical and sociological studies of the sciences and from developments within cognitive psychology and artificial intelligence. Today, a large majority of philosophers of science agrees that the classical conception as well as the romantic conception are mistaken. Against the classical conception, it is generally accepted that truly novel discoveries are not the result of simply applying some standardized procedure. Against the romantic conception, it is rejected that discoveries are produced by unstructured flashes of insight.

An especially important result of the contemporary study concerns the availability of (descriptive and normative) models for explaining discoveries and creative processes. Descriptive models mainly aim at explaining the origin of novel products; normative models moreover address the question how rational researchers should proceed when confronted with problems for which a standard procedure is missing. The present book provides an overview of these models and of the important changes they induced within methodology. As appears from several papers, the methodological study of discovery and creativity led to profound changes in our conceptions of justification and acceptance, of rationality, of scientific change, and of conceptual change. The book contains contributions from both historians and philosophers of science. All of them, however, are methodological in the contemporary sense of the term. The central values of this methodology are empirical accurateness, clarity and precision, and rationality. The different contributions realize these values by their interdisciplinary nature. Some philosophically oriented papers rely on historical case studies and results from the cognitive sciences, others on recent results from the computer sciences and/or non-standard logics. The historically oriented papers address central philosophical questions and hypotheses.

This book illuminates how Berkner became a model that produced the scientist/advisor/policymaker that helped build post-war America. It does so by providing a detailed account of the personal and professional beliefs of one of the most influential figures in the American scientific community; a figure that helped define the political and social climates that existed in the United States during the Cold War.

Vitalism is usually associated with Romantic theories of nature, but the supposition of a 'vital principle' or life-force recurred throughout eighteenth-century natural philosophy, to counter the inadequacy of mechanism to understand the operation of natural life. This book traces the persistent presence of a language of vital nature not only in eighteenth-century science, but in literary and philosophical writing too: in moral philosophy, theories of sensibility and political economy, and in the radical journalism and women's writing of the 1790s. It explores the influence of the Scottish vitalist physiology of Robert Whytt and others on writers and thinkers as diverse as Adam Smith, David Hume, Erasmus Darwin, John Hunter, John Thelwall and Mary Wollstonecraft. In doing so, it shows the centrality of vitalism to eighteenth-century accounts of the body, nature, matter and life, and offers a new way of understanding the relationship between eighteenth-century science and culture and that of the Romantic period.

Variational principles have proven to be surprisingly fertile. For example, Fermat used variational methods to demonstrate that light follows the fastest route from one point to another, an idea which came to be a cornerstone of geometrical optics. This book explains variational principles and charts their use throughout modern physics. It examines the analytical mechanics of Lagrange and Hamilton, the basic tools of any physicist. The book also offers simple but rich first impressions of Einstein’s General Relativity, Feynman’s Quantum Mechanics, and more that reveal amazing interconnections between various fields of physics.

A collection in 12 volumes of all the published works of Robert Boyle (1627-1691), who was one of the most influential scientific and theological thinkers of his time. Discoverer of Boyle's Law, which still pertains in modern science, his writings range around the greatest scientific issues of his day. Works originally in Latin are presented in their contemporary English translations. There is a general introduction with explanatory notes to the texts. A bibliography and general index permits access to all Boyle's work.

Outstanding Academic Title, Choice Cybernetics-the science of communication and control as it applies to machines and to humans-originates from efforts during World War II to build automatic antiaircraft systems. Following the war, this science extended beyond military needs to examine all systems that rely on information and feedback, from the level of the cell to that of society. In The Cybernetics Moment, Ronald R. Kline, a senior historian of technology, examines the intellectual and cultural history of cybernetics and information theory, whose language of "information," "feedback," and "control" transformed the idiom of the sciences, hastened the development of information technologies, and laid the conceptual foundation for what we now call the Information Age. Kline argues that, for about twenty years after 1950, the growth of cybernetics and information theory and ever-more-powerful computers produced a utopian information narrative-an enthusiasm for information science that influenced natural scientists, social scientists, engineers, humanists, policymakers, public intellectuals, and journalists, all of whom struggled to come to grips with new relationships between humans and intelligent machines. Kline traces the relationship between the invention of computers and communication systems and the rise, decline, and transformation of cybernetics by analyzing the lives and work of such notables as Norbert Wiener, Claude Shannon, Warren McCulloch, Margaret Mead, Gregory Bateson, and Herbert Simon. Ultimately, he reveals the crucial role played by the cybernetics moment-when cybernetics and information theory were seen as universal sciences-in setting the stage for our current preoccupation with information technologies.

The Alfonsine Tables became the main computing tool for astronomers for about 250 years, from their compilation in Toledo ca. 1272 to the edition in 1551 of new tables based on Copernicus s astronomical models. It consisted of a set of astronomical tables which, over time, was presented in many different formats. Giovanni Bianchini (d. after 1469), an astronomer active in Ferrara, Italy, was among the few scholars of that extended period to compile a coherent and insightful set based on the Alfonsine Tables. His tables, described and analyzed here for the first time, played a remarkable role in the transmission of the Alfonsine Tables and in their transition from manuscript to print. "Medieval and Early Modern Science," 10