The subject of the book is the development of physics in the 18th century centered upon the fundamental contributions of Leonhard Euler to physics and mathematics. This is the first book devoted to Euler as a physicist. Classical mechanics are reconstructed in terms of the program initiated by Euler in 1736 and its completion over the following decades until 1760. The book examines how Euler coordinated his progress in mathematics with his progress in physics.

A nuanced reframing of the dual importance of reading and observation for early modern naturalists. Historians of science traditionally argue that the sciences were born in early modern Europe during the so-called scientific revolution. At the heart of this narrative lays a supposed shift from the knowledge of books to the knowledge of things. The attitude of the new-style intellectual broke with the text-based practices of erudition and instead cultivated the new empiricism of observation and experiment. Instead of blindly trusting the authority of ancient sources such as Pliny and Aristotle, practitioners of the new experimental philosophy insisted upon experiential proof. In A Centaur in London, Fabian Kraemer calls a key tenet of this master narrative into question-that the rise of empiricism entailed a decrease in the importance of reading practices. Kraemer shows instead that the early practices of textual erudition and observational empiricism were by no means so remote from one another as the traditional narrative would suggest. Kraemer argues that reading books and reading the book of nature had a great deal in common-indeed, that reading texts was its own kind of observation. Especially in the case of rare and unusual phenomena like monsters, naturalists were dependent on the written reports of others who had experienced the good luck to be at the right place at the right time. The connections between compiling examples from texts and from observation were especially close in such cases. A Centaur in London combines the history of scholarly reading with the history of scientific observation to argue for the sustained importance of both throughout the Renaissance and provides a nuanced, textured portrait of early modern naturalists at work.

Using primary sources and personal experience, this book traces the origins of microbiology at the government establishments at the Porton Down Centre. Begun in secrecy during World War II, early work concentrated on a response to the threat of biological warfare from Germany. It traces Porton's pioneering work on deadly diseases such as anthrax, through to the Centre's modern role in healthcare. The authors provide an invaluable source of information for scientists and historians alike, particularly for those interested in political and military history.

Jan De Vos starts where other critiques on psychology end, presenting the argument that psychology is psychologization.This fresh and pioneering approach asks what it means to become the psychologist of one's own life. If something is not working in our education, in our marriage, in our work and in society in general we turn to the psy-sciences. But is the latter's paradigm precisely not relying on feeding psychological theories into the field of research and action?This book traces psychologization from the Enlightenment to Late-Modernity, engaging with seminal thinkers such as La Mettrie, Husserl, Lasch and Agamben, whereby Jan De Vos teases out the possibilities and the limits of using psychoanalytic theory as a critical tool. Offering challenging and thought-provoking insights into how the modern human came to adopt a psychological gaze on itself and the world, this book will appeal to psychologists, sociologists and studies of culture.

This book gives an analysis of Hertz's posthumously published Principles of Mechanics in its philosophical, physical and mathematical context. In a period of heated debates about the true foundation of physical sciences, Hertz's book was conceived and highly regarded as an original and rigorous foundation for a mechanistic research program. Insisting that a law-like account of nature would require hypothetical unobservables, Hertz viewed physical theories as (mental) images of the world rather than the true design behind the phenomena. This paved the way for the modern conception of a model. Rejecting the concept of force as a coherent basic notion of physics he built his mechanics on hidden masses (the ether) and rigid connections, and formulated it as a new differential geometric language. Recently many philosophers have studied Hertz's image theory and historians of physics have discussed his forceless mechanics. The present book shows how these aspects, as well as the hitherto overlooked mathematical aspects, form an integrated whole which is closely connected to the mechanistic world view of the time and which is a natural continuation of Hertz's earlier research on electromagnetism. Therefore it is also a case study of the strong interactions between philosophy, physics and mathematics. Moreover, the book presents an analysis of the genesis of many of the central elements of Hertz's mechanics based on his manuscripts and drafts. Hertz's research program was cut short by the advent of relativity theory but its image theory influenced many philosophers as well as some physicists and mathematicians and its geometric form had a lasting influence on advanced expositions of mechanics.

Emerging disciplines in the border zone between physics and chemistry have 1 attracted the attention of historians of science particularly in the last 20 years. 2 Quantum chemistry, as an offshoot of theoretical chemistry, has recently acquired 3 some importance in the history of chemistry. It is the product of close 1 Cf. Hiebert, E. : Discipline Identi cation in Chemistry and Physics, in: Science in Context, 9(2) (1996), 93-119; Nye, M. J. : Physics and Chemistry: Commensurate or Incommensurate Sciences? in: The Invention of Physical Science, Intersections of Mathematics, Theology and Natural Philosophy since the Seventeenth Century - Essays in Honor of Erwin N. Hiebert. Kluwer Academic Publishers, Dordrecht 1992; From Chemical Philosophy to Theoretical Chemistry: Dynamics of Matter and Dynamics of Disciplines, 1800-1950. University of California Press, Berkeley 1994; Servos, J. W. : Physical Chemistry from Ostwald to Pauling, the Making of a Science in America. Princeton University Press, New Jersey 1990; Chemical Sciences in the 20th Century: Bridging Boundaries, edited by Carsten Reinhard. Wiley-VCH, Weinheim 2001 (incl. a comprehensive bibliography). 2 In an earlier article I point out that the term "quantum chemistry" [Quantenchemie] rst appeared in 1929. To my knowledge it was coined by the physicist Arthur Haas. Talks he had del- ered before the Viennese Chemico-Physical Society in the spring of 1929 are assembled in his book: Die Grundlagen der Quantenchemie: Eine Einleitung in vier Vortrage. It was published by the Akademische Verlagsgesellschaft in Leipzig.

In 1910, E. T. Whittaker wrote "A History of the Theories of Aether and Electricity," which gave a very detailed account of the aether theories from Ren Descartes to Hendrik Lorentz, and which made Whittaker a respected historian of science. Though the book was a "History," Whittaker showed his own brilliance in his exposition of relativity. (Fully illustrated)

This is the first part of a series of books whose aim is to collect contributed papers describing the work of famous persons in MMS (Mechanism and Machine Science).The current work treats mainly technical developments in the historical evolution of the fields that today are grouped in MMS. Thus, the emphasis is on biographical notes describing the efforts and experiences of people who have contributed to the technical achievements which form the core of each contributed paper. These papers cover the wide field of the History of Mechanical Engineering with specific focus on MMS.This volume will be of value to a broad audience interested in the history of engineering.

I Twenty-five years ago, at the Conference on the Comparative Reception of Darwinism held at the University of Texas in 1972, only two countries of the Iberian world-Spain and Mexico-were represented.' At the time, it was apparent that the topic had attracted interest only as regarded the "mainstream" science countries of Western Europe, plus the United States. The Eurocentric bias of professional history of science was a fact. The sea change that subsequently occurred in the historiography of science makes 1972 appear something like the antediluvian era. Still, we would like to think that that meeting was prescient in looking beyond the mainstream science countries-as then perceived-in order to test the variation that ideas undergo as they pass from center to periphery. One thing that the comparative study of the reception of ideas makes abundantly clear, however, is the weakness of the center/periphery dichotomy from the perspective of the diffusion of scientific ideas. Catholics in mainstream countries, for example, did not handle evolution much better than did their corre1igionaries on the fringes. Conversely, Darwinians in Latin America were frequently better placed to advance Darwin's ideas in a social and political sense than were their fellow evolutionists on the Continent. The Texas meeting was also a marker in the comparative reception of scientific ideas, Darwinism aside. Although, by 1972, scientific institutions had been studied comparatively, there was no antecedent for the comparative history of scientific ideas.

The first part of this third volume of Wigner's Collected Works is devoted to his analysis of symmetries in quantum mechanics, of the relativistic wave equations, of relativistic particle theory, and of field theory. It is introduced by the masterly annotation of Arthur S. Wightman. Abner Shimony annotates the second part where the reader will find Wigner's contributions to the foundations of quantum physics and to the problems of measurement.

This book shines bright light into the dim recesses of quantum theory, where the mysteries of entanglement, nonlocality, and wave collapse have motivated some to conjure up multiple universes, and others to adopt a "shut up and calculate" mentality. After an extensive and accessible introduction to quantum mechanics and its history, the author turns attention to his transactional model. Using a quantum handshake between normal and time-reversed waves, this model provides a clear visual picture explaining the baffling experimental results that flow daily from the quantum physics laboratories of the world. To demonstrate its powerful simplicity, the transactional model is applied to a collection of counter-intuitive experiments and conceptual problems.

Modernist writers were well aware of the new physics and its underlying concepts. Einstein's Wake shows how the most innovative scientific thinking was understood by non-specialists such as Joseph Conrad, Virginia Woolf, D. H. Lawrence, and T. S. Eliot, and how it entered into their literary works.

Starting at the dawn of science, History of Industrial Gases traces the development of gas theory from its Aristotelian roots to its modern achievements as a global industry. Dr. Almqvist explores how environmental protection, geographical areas, and the drive for higher purity and efficiency affected development in the nineteenth and twentieth centuries, and how they will influence the future of this rapidly expanding industry. The roles of major contributing companies are also discussed to provide an informative and thought-provoking treatise valuable to anyone who studies or works in this fascinating field.

In an unscientific era when maps were rarities, how did ancient Romans envisage their far flung empire? This was done by various means for certain, including with the aid of an ingenious type of portable sundial that has barely attracted notice. As the Romans understood before the first century BCE, to track the passage of the sun across the sky hour-by-hour one needed to know one's latitude and the time of year, and that, furthermore, sundials did not have to be fixed objects. These portable instruments, crafted in bronze, were adjustable for the changes of latitude to be expected on long journeys-say, for instance, from Britain to Spain, or from Alexandria to Rome, or even on a Mediterranean tour. For convenient reference, these sundials incorporated lists of twenty to thirty names of cities or regions, each with its specific latitude. One of the insights of Roman Portable Sundials is that the choice of locations offers unique clues to the mental world-map and self-identity of individuals able to visualize Rome's vast empire latitudinally. The sixteen such sundials known to date share common features but designers also vied to create enhancements. Comparison with modern calculations shows that often the latitudes listed are incorrect, in which case the sundial may not perform at its best. But then the nature of Romans' time-consciousness (or lack of it) must be taken into consideration. Richard Talbert suspects that owners might prize these sundials not so much for practical use but rather as prestige objects attesting to scientific awareness as well as imperial mastery of time and space. In retrospect, they may be seen as Roman precursors to comparable Islamic and European instruments from the Middle Ages onwards, and even to today's luxury watches which display eye-catching proof of their purchasers' wealth, sophistication, and cosmopolitanism. Richly enhanced with detailed photographs, line drawings, maps, a gazetteer, and a table of latitudes and locations, Roman Portable Sundials brings these overlooked gadgets out of the shadows at last to reveal their hitherto untapped layers of meaning.

In 1957 two young scientists, Matthew Meselson and Frank Stahl, produced a landmark experiment confirming that DNA replicates as predicted by the double helix structure Watson and Crick had recently proposed. It also gained immediate renown as a "most beautiful" experiment whose beauty was tied to its simplicity. Yet the investigative path that led to the experiment was anything but simple, Frederic L. Holmes shows in this masterful account of Meselson and Stahl's quest. This book vividly reconstructs the complex route that led to the Meselson-Stahl experiment and provides an inside view of day-to-day scientific research--its unpredictability, excitement, intellectual challenge, and serendipitous windfalls, as well as its frustrations, unexpected diversions away from original plans, and chronic uncertainty. Holmes uses research logs, experimental films, correspondence, and interviews with the participants to record the history of Meselson and Stahl's research, from their first thinking about the problem through the publication of their dramatic results. Holmes also reviews the scientific community's reception of the experiment, the experiment's influence on later investigations, and the reasons for its reputation as an exceptionally beautiful experiment.

A contemporary of Galileo and a forerunner of Isaac Newton, Johannes Kepler (1571-1630) was a pioneering German scientist and a pivotal figure in the history of astronomy. This colorful, well-researched biography brings the man and his scientific discoveries to life, showing how his contributions were every bit as important as those of Copernicus, Galileo, and Newton.It was Kepler who first advocated the completely new concept of a physical force emanating from the sun that controls the motion of the planets--today we call this gravity and take it for granted. He also established that the orbits of the planets were elliptical in shape and not circular. And his three laws of planetary motion are still used by contemporary astronomers and space scientists.The author focuses not just on these and other momentous breakthroughs but also on Kepler's arduous life, punctuated by frequent tragedy and hardships. His first wife died young, and eight of the twelve children he fathered succumbed to disease in infancy or childhood. He was frequently caught up in the religious persecutions of the day. His mother narrowly escaped death when she was accused of being a witch.Intermingling historical and personal details of Kepler's life with lucid explanations of his scientific research, this book presents a sympathetic portrait of the man and underscores the critical importance of Kepler's discoveries in the history of astronomy.

This set of 10 volumes, originally published between 1900 and 1994, amalgamates a wide breadth of research on Science and Technology in the Nineteenth Century, including studies on notable figures such as Gregor Johann Mendel, Elizabeth Garrett Anderson and Sir Humphry Davy. This collection of books from some of the leading scholars in the field provides a comprehensive overview of the subject how it has evolved over time, and will be of particular interest to students of history and the sciences.

This volume covers Darwin's reception across Europe and his influence on European science and culture.Charles Darwin is a crucial figure in nineteenth-century science with an extensive and varied reception in different countries and disciplines. His theory had a revolutionary impact not only on biology, but also on other natural sciences and the new social sciences. The term 'Darwinism', already popular in Darwin's lifetime, ranged across many different areas and ideological aspects, and his own ideas about the implications of evolution for human cognitive, emotional, social and ethical capacities were often interpreted in a way that did not mirror his own intentions. The implications for religious, philosophical and political issues and institutions remain as momentous today as in his own time.This volume conveys the many-sidedness of Darwin's reception and exhibit his far-reaching impact on our self-understanding as human beings.