This book highlights the importance of individuals in the shaping of postwar Japan by providing an historical account of how physicists constituted an influential elite. An history of science perspective provides insight into their role, helping us to understand the hybrid identity of Japanese scientists, and how they reinvented not only themselves, but also Japan. The book is special in that it uses the history of science to deal with issues relating to Japanese identity, and how it was transformed in the decades after Japan's defeat. It explores the lives and work of seven physicists, two of whom were Nobel prize winners. It makes use of little-known Occupation period documents, personal papers of physicists, and Japanese language source material.

All technologies differ from one another. They are as varied as humanity's interaction with the physical world. Even people attempting to do the same thing produce multiple technologies. For example, John H. White discovered more than l 1000 patents in the 19th century for locomotive smokestacks. Yet all technologies are processes by which humans seek to control their physical environment and bend nature to their purposes. All technologies are alike. The tension between likeness and difference runs through this collection of papers. All focus on atmospheric flight, a twentieth-century phenomenon. But they approach the topic from different disciplinary perspectives. They ask disparate questions. And they work from distinct agendas. Collectively they help to explain what is different about aviation - how it differs from other technologies and how flight itself has varied from one time and place to another. The importance of this topic is manifest. Flight is one of the defining technologies of the twentieth century. Jay David Bolter argues in Turing's Man that certain technologies in certain ages have had the power not only to transform society but also to shape the way in which people understand their relationship with the physical world. "A defining technology," says Bolter, "resembles a magnifying glass, which collects and focuses seemingly disparate ideas in a culture into one bright, sometimes piercing ray." 2 Flight has done that for the twentieth century.

This volume contains essays that examine the optical works of Giambattista Della Porta, an Italian natural philosopher during the Scientific Revolution. Coverage also explores the science and technology of early modern optics. Della Porta's groundbreaking book, Magia Naturalis (Natural Magic), includes a prototype of the camera. Yet, because of his obsession with magic, Della Porta's scientific achievements are often forgotten. As the contributors argue, his work inspired such great minds as Johanes Kepler and Francis Bacon. After reading this book, researchers, historians, and students will have a better appreciation of this influential scientist. They will also gain a greater understanding of an important period in the history of optics. Readers will learn about Della Porta's experimental method, a process governed by the protocols, aims, and theoretical assumptions of natural magic. Coverage also discusses the material properties and limitations of optical technology in the early 17th century, based on a recently discovered Dutch spyglass. It also demonstrates how diagrams were instrumental in the discovery of the sine law of refraction. In addition, the book includes an in-depth analysis of previously untranslated Latin sources. This makes the material useful to historians of optics unfamiliar with the language. More than 70 illustrations complement the text.

The scope of the book is to give an overview of the history of astroparticle physics, starting with the discovery of cosmic rays (Victor Hess, 1912) and its background (X-ray, radioactivity).
The book focusses on the ways in which physics changes in the course of this history. The following changes run parallel, overlap, and/or interact:
- Discovery of effects like X-rays, radioactivity, cosmic rays, new particles but also progress through non-discoveries (monopoles) etc.
- The change of the description of nature in physics, as consequence of new theoretical questions at the beginning of the 20th century, giving rise to quantum physics, relativity, etc.
- The change of experimental methods, cooperations, disciplinary divisions.
With regard to the latter change, a main topic of the book is to make the specific multi-diciplinary features of astroparticle physics clear."

Special Relativity provides the foundations of our knowledge of space and time. Without it, our understanding of the world, and its place in the universe, would be unthinkable. This book gives a concise, elementary, yet exceptionally modern, introduction to special relativity. It is a gentle yet serious 'first encounter', in that it conveys a true understanding rather than purely reports the basic facts. Only very elementary mathematical knowledge is needed to master it (basic high-school maths), yet it will leave the reader with a sound understanding of the subject. Special Relativity: A First Encounter starts with a broad historical introduction and motivation of the basic notions. The central chapters are dedicated to special relativity, mainly following Einstein's historical route. Later chapters turn to various applications in all parts of physics and everyday life. Unlike other books on the subject, the current status of the experimental foundations of special relativity is accurately reported and the experiments explained. This book will appeal to anyone wanting a gentle introduction to the subject, as well as those who are interested in seriously learning about Einstein's legacy.

This impressive new book from Sue-Ellen Case looks at how science has been performed throughout history, tracing a line from nineteenth century alchemy to the twenty-first century virtual avatar. In this bold and wide-ranging book that is written using a crossbreed of styles, we encounter a glance of Edison in his laboratory, enter the soundscape of John Cage and raid tombs with Lara Croft. Case looks at the intersection of science and performance, the academic treatment of classical plays and internet-like bytes on contemporary issues and experiments where the array of performances include: electronic music Sun Ra, the jazz musician the recursive play of tape from Samuel Beckett to Pauline Oliveros Performing Science and the Virtual reviews how well these performances borrow from spiritualist notions of transcendence, as well as the social codes of race, gender and economic exchange. This book will appeal to academics and graduates studying theatre and performance studies, cultural studies and philosophy.

Soon to be a major motion picture
The moving, personal story of Charles Darwin and his revolutionary views on nature, evolution, and the human condition.
As Darwin's theories continue to shape much of our thinking about the roots of human nature, "Creation" (formerly "Darwin, His Daughters, and Human Evolution") reveals the personal experiences from which he drew his most deeply held ideas.
In a chest of drawers bequeathed by his grandmother, author Randal Keynes, a great-great-grandson of Darwin, found the writing case of Charles Darwin's beloved daughter Annie, who died at the age of fifteen. Offering rare insight into the family's private world, Keynes gives us a fuller picture of one of our most original thinkers, as well as a wealth of previously unseen material.

The bald eagle is regal but fearless, a bird you're not inclined to argue with. For centuries, Americans have celebrated it as "majestic" and "noble" yet savaged the living bird behind their national symbol as a malicious predator of livestock and, falsely, a snatcher of babies. Taking us from before the United States' founding through inconceivable resurgences of this enduring all-American species, Jack E. Davis contrasts the age when native peoples lived beside it peacefully with that when others, whether through hunting bounties or DDT pesticides, twice pushed Haliaeetus leucocephalus to the brink of extinction. Filled with spectacular stories of Founding Fathers, rapacious hunters, heroic bird rescuers and the lives of bald eagles themselves-monogamous creatures, considered among the animal world's finest parents-The Bald Eagle is a much-awaited cultural and natural history that demonstrates how this bird's wondrous journey may provide inspiration today, as we grapple with environmental peril on a larger scale.

It is generally believed that doing science means accumulating empirical data with no or little reference to the interpretation of the data based on the scientist's th- retical framework or presuppositions. Holton (1969a) has deplored the widely accepted myth (experimenticism) according to which progress in science is presented as the inexorable result of the pursuit of logically sound conclusions from un- biguous experimental data. Surprisingly, some of the leading scientists themselves (Millikan is a good example) have contributed to perpetuate the myth with respect to modern science being essentially empirical, that is carefully tested experim- tal facts (free of a priori conceptions), leading to inductive generalizations. Based on the existing knowledge in a field of research a scientist formulates the guiding assumptions (Laudan et al. , 1988), presuppositions (Holton, 1978, 1998) and "hard core" (Lakatos, 1970) of the research program that constitutes the imperative of presuppositions, which is not abandoned in the face of anomalous data. Laudan and his group consider the following paraphrase of Kant by Lakatos as an important guideline: philosophy of science without history of science is empty. Starting in the 1960s, this "historical school" has attempted to redraw and replace the positivist or logical empiricist image of science that dominated for the first half of the twentieth century. Among other aspects, one that looms large in these studies is that of "guiding assumptions" and has considerable implications for the main thesis of this monograph (Chapter 2).

Art and Science in Word and Image investigates the theme of 'riddles of form', exploring how discovery and innovation have functioned inter-dependently between art, literature and the sciences. Using the impact of evolutionary biologist D'Arcy Thompson's On Growth and Form on Modernist practices as springboard into the theme, contributors consider engagements with mysteries of natural form in painting, photography, fiction, etc., as well as theories about cosmic forces, and other fields of knowledge and enquiry. Hence the collection also deals with topics including cultural inscriptions of gardens and landscapes, deconstructions of received history through word and image artworks and texts, experiments in poetic materiality, graphic re-mediations of classic fiction, and textual transactions with animation and photography. Contributors are: Dina Aleshina, Marcia Arbex, Donna T. Canada Smith, Calum Colvin, Francis Edeline, Philippe Enrico, Etienne Fevrier, Madeline B. Gangnes, Eric T. Haskell, Christina Ionescu, Tim Isherwood, Matthew Jarron, Philippe Kaenel, Judy Kendall, Catherine Lanone, Kristen Nassif, Solange Ribeiro de Oliveira, Eric Robertson, Frances Robertson, Cathy Roche-Liger, David Skilton, Melanie Stengele, Barry Sullivan, Alice Tarbuck, Frederik Van Dam.

A treasure for anyone interested in early modern India and the history of mathematics, this first English translation of the Siddhantasundara reveals the fascinating work of the scholar-astronomer Jnanaraja (circa 1500 C.E.). Toke Lindegaard Knudsen begins with an introduction to the traditions of ancient Hindu astronomy and describes what is known of Jnanaraja's life and family. He translates the Sanskrit verses into English and offers expert commentary on the style and substance of Jnanaraja's treatise.

The Siddhantasundara contains a comprehensive exposition of the system of Indian astronomy, including how to compute planetary positions and eclipses. It also explores deep, probing questions about the workings of the universe and sacred Hindu traditions. In a philosophical discussion, the treatise seeks a synthesis between the cosmological model used by the Indian astronomical tradition and the cosmology of a class of texts sacred in Hinduism. In his discourse, which includes a discussion of the direction of down and adhesive antipodeans, Jnanaraja rejects certain principles from the astronomical tradition and reinterprets principles from the sacred texts. He also constructs a complex poem on the seasons, many verses of which have two layers of meaning, one describing a season, the other a god's activities in that season.

The Siddhantasundara is the last major treatise of Indian astronomy and cosmology to receive serious scholarly attention, Knudsen's careful effort unveils the 500-year-old Sanskrit verses and shows the clever quirkiness of Jnanaraja's writing style, his keen use of mathematics, and his subtle philosophical arguments.

This book is a historical-epistemological study of one of the most consequential breakthroughs in the history of celestial mechanics: Robert Hooke's (1635-1703) proposal to "compoun[d] the celestial motions of the planets of a direct motion by the tangent & an attractive motion towards a centrat body" (Newton, The Correspondence li, 297. Henceforth: Correspondence). This is the challenge Hooke presented to Isaac Newton (1642-1727) in a short but intense correspondence in the winter of 1679-80, which set Newton on course for his 1687 Principia, transforming the very concept of "the planetary heavens" in the process (Herivel, 301: De Motu, Version III). 1 It is difficult to overstate the novelty of Hooke 's Programme * The celestial motions, it suggested, those proverbial symbols of stability and immutability, werein fact a process of continuous change: a deflection of the planets from original rectilinear paths by "a centraU attractive power" (Correspondence, li, 313). There was nothing necessary or essential in the shape of planetary orbits. Already known to be "not circular nor concentricall" (ibid. ), Hooke claimed that these apparently closed "curve Line[ s ]" should be understood and calculated as mere effects of rectilinear motions and rectilinear attraction. And as Newton was quick to realize, this also implied that "the planets neither move exactly in ellipse nor revolve twice in the same orbit, so that there are as many orbits to a planet as it has revolutions" (Herivel, 301: De Motu, Version III).

Our knowledge of our solar system has passed the point of no return. Increasingly, it seems possible that scientists will soon discover how life is created on habitable planets like Earth and Mars. Scientists have responded to a renewed public interest in the origin of life with research, but many questions still remain unanswered in the broader conversation. Other questions can be answered by the laws of chemistry and physics, but questions surrounding the origin of life are best answered by reasonable extrapolations of what scientists know from observing the Earth and its solar system. Origin of Life: What Everyone Needs to Know (R) is a comprehensive scientific guide on the origin of life. David W. Deamer sets out to answer the top forty questions about the origin of life, including: Where do the atoms of life come from? How old is Earth? What was the Earth like before life originated? Where does water come from? How did evolution begin? After he provides the informational answer for each question, there is a follow-up: How do we know? This question expands the horizon of the whole book, and provides scientific reasoning and explanations for hypotheses surrounding the origin of life. How scientists come to their conclusions and why we can trust these answers is an important question, and Deamer provides answers to each big question surrounding the origin of life, from what it is to why we should be curious.

Read about the dramatic life of an outstanding mathematical genius: Niels Henrik Abel (1802-1829). Arild Stubhaug, who is both a historian and a mathematician, has written the definitive biography of Niels Henrik Abel. The Norwegian original edition was a sensational success, and Arild Stubhaug was awarded the most prestigious Norwegian literary prize (Brageprisen) in the category non-fiction. Everyone with an interest in the history of mathematics and science will enjoy reading this book on one of the most famous mathematicians of the 19th century.

The fascinating correspondence between Paul Levy and Maurice Frechet spans an extremely active period in French mathematics during the twentieth century. The letters of these two Frenchmen show their vicissitudes of research and passionate enthusiasm for the emerging field of modern probability theory. The letters cover various topics of mathematical importance including academic careers and professional travels, issues concerning students and committees, and the difficulties both mathematicians met to be elected to the Paris Academy of Sciences. The technical questions that occupied Levy and Frechet on almost a daily basis are the primary focus of these letters, which are charged with elation, frustration and humour. Their mathematical victories and setbacks unfolded against the dramatic backdrop of the two World Wars and the occupation of France, during which Levy was obliged to go into hiding. The clear and persistent desire of these mathematicians to continue their work whatever the circumstance testifies to the enlightened spirit of their discipline which was persistent against all odds. The book contains a detailed and comprehensive introduction to the central topics of the correspondence. The original text of the letters is also annotated by numerous footnotes for helpful guidance. Paul Levy and Maurice Frechet will be useful to anybody interested in the history of mathematics in the twentieth century and, in particular, the birth of modern probab ility theory.

These studies respond to the challenge posed twenty years ago by John E. Murdoch, in whose honor they have been assembled: to interpret ancient and medieval mathematical and scientific texts not just as isolated intellectual productions but as responses to particular settings or contexts. Two broad settings are explored here: that of the wider intellectual culture, where relations among mathematics, astronomy, natural philosophy - and also theology, logic and astrology - are shown to have shaped individual texts; and the context of lay society, where institutional structures, patronage, even personal relationships impinged upon scientific writing. The volume reinforces the growing recognition that ancient and medieval scientific texts "made a difference" to their authors and audiences and must be understood in relation to topics like disciplinary identity, career advancement, lay interest, and practical applicability. Publications by John E. Murdoch: Edited by Christoph Luthy, John E. Murdoch and William R. Newman, Late Medieval and Early Modern Corpuscular Matter Theories, ISBN: 978 90 04 11516 3

The Cambridge History of the Polar Regions is a landmark collection drawing together the history of the Arctic and Antarctica from the earliest times to the present. Structured as a series of thematic chapters, an international team of scholars offer a range of perspectives from environmental history, the history of science and exploration, cultural history, and the more traditional approaches of political, social, economic, and imperial history. The volume considers the centrality of Indigenous experience and the urgent need to build action in the present on a thorough understanding of the past. Using historical research based on methods ranging from archives and print culture to archaeology and oral histories, these essays provide fresh analyses of the discovery of Antarctica, the disappearance of Sir John Franklin, the fate of the Norse colony in Greenland, the origins of the Antarctic Treaty, and much more. This is an invaluable resource for anyone interested in the history of our planet.

Yakov Alpert (b. 1911) has been making waves all his life -- in scientific laboratories, where his pioneering work as a radio physicist earned him world renown, and in the Soviet Union, where he defied the repressive Soviet regime, became a refusnik and a dissident, and at the age of 76 finally won permission to emigrate to the United States. Alpert tells in this gripping personal memoir what it was like to be a scientist during the entire life cycle of the Soviet Union. His account provides a uniquely revealing look inside the Soviet scientific community, a firsthand view of Soviet society from postrevolutionary days to the nation's ultimate collapse, and a thought-provoking description of how scientists and citizens responded, some bravely and some cravenly, to the repression and anti-Semitism of the Soviet regime.

First published in 1969. The historical civilization of China is, with the Indian and European-Semitic, one of the three greatest in the world, yet only relatively recently has any enquiry been begun into its achievements in science and technology. Between the first and fifteenth centuries the Chinese were generally far in advance of Europe and it was not until the scientific revolution of the Renaissance that Europe drew ahead. Throughout those fifteen centuries, and ever since, the West has been profoundly affected by the discoveries and invention emanating from China and East Asia. In this series of essays and lectures, Joseph Needham explores the mystery of China's early lead and Europe's later overtaking.

The book about John Michell (1724-93) has two parts. The first and longest part is biographical, an account of Michell's home setting (Nottinghamshire in England), the clerical world in which he grew up (Church of England), the university (Cambridge) where he studied and taught, and the scientific activities he made the center of his life. The second part is a complete edition of his known letters. Half of his letters have not been previously published; the other half are brought together in one place for the first time. The letters touch on all aspects of his career, and because they are in his words, they help bring the subject to life. His publications were not many, a slim book on magnets and magnetism, one paper on geology, two papers on astronomy, and a few brief papers on other topics, but they were enough to leave a mark on several sciences. He has been called a geologist, an astronomer, and a physicist, which he was, though we best remember him as a natural philosopher, as one who investigated physical nature broadly. His scientific contribution is not easy to summarize. Arguably he had the broadest competence of any British natural philosopher of the eighteenth century: equally skilled in experiment and observation, mathematical theory, and instruments, his field of inquiry was the universe. From the structure of the heavens through the structure of the Earth to the forces of the elementary particles of matter, he carried out original and far-reaching researches on the workings of nature.