This sixth volume of Historical Studies in the Physical Sciences presents articles by ten eminent scholars on the intellectual and social history of the physical sciences from the eighteenth century to the present. CONTENTS The Emergence of Japan's First Physicists: 1868-1900 (Kenkichiro Koizumi) The Reception of the Wave Theory of Light in Britain: A Case Study Illustrating the Role of Methodology in Scientific Debate (Geoffrey Cantor) Origins and Consolidation of Field Theory in Nineteenth Century Britain: From the Mechanical to the Electromagnetic View of Nature (Barbara Giusti Doran) Hertz's Researches on Electromagnetic Waves (Salvo D'Agostino) God and Nature: Priestley's Way of Rational Dissent (J. G. McEvoy and J. E. McGuire) Laurent, Gerhardt, and the Philosophy of Chemistry (John Hedley Brooke) The Lewis-Langrnuir Theory of Valence and the Chemical Community, 1920-1928 (Robert E. Kohler, Jr.) G. N. Lewis on Detailed Balancing, the Symmetry of Time, and the Nature of Light (Roger H. Stuewer) Rutherford and Recoil Atoms: The Metamorphosis and Success of a Once Stillborn Theory (Thaddeus J. Trenn) Originally published in 1976. The Princeton Legacy Library uses the latest print-on-demand technology to again make available previously out-of-print books from the distinguished backlist of Princeton University Press. These editions preserve the original texts of these important books while presenting them in durable paperback and hardcover editions. The goal of the Princeton Legacy Library is to vastly increase access to the rich scholarly heritage found in the thousands of books published by Princeton University Press since its founding in 1905.

Historical Studies in the Physical Sciences is a continuing series of volumes comprising articles that elucidate the intellectual and social history of the physical sciences from the eighteenth century to the present. The articles offered in Volume 5 share a common theme: a concern with modern physics and its relation to other scientific disciplines and to its cultural and material context. Originally published in 1975. The Princeton Legacy Library uses the latest print-on-demand technology to again make available previously out-of-print books from the distinguished backlist of Princeton University Press. These editions preserve the original texts of these important books while presenting them in durable paperback and hardcover editions. The goal of the Princeton Legacy Library is to vastly increase access to the rich scholarly heritage found in the thousands of books published by Princeton University Press since its founding in 1905.

The first article in this volume, by Tetu Hirosige, is a definitive study of the genesis of Einstein's theory of relativity. Other articles treat topics—theoretical, experimental, philosophical, and institutional—in the history of physics and chemistry from the researches of Laplace and Lavoisier in the eighteenth century to those of Dirac and Jordan in the twentieth century. Contents: The Ether Problem, the Mechanistic World View, and the Origins of the Theory of Relativity (Tetu Hirosige); Kinstein's Early Scientific Collaboration (Lewis Pyenson); Max Planck's Philosophy of Nature and His Elaboration of the Special Theory of Relativity (Stanley Goldberg); The Concept of Particle Creation before and after Quantum Mechanics (Joan Brombery); Chemistry as a Branch of Physics: Laplace's Collaboration with Lavoisier (Henry Guerlac); Mayer's Concept of "Force": The "Axis" of a New Science of Physics (P. M. Heimann); Debates over the Theory of Solution: A Study of Dissent in Physical Chemistry in the English-Speaking World in the Late Nineteenth and Early Twentieth Centuries (R. G. A. Dolby); The Rise of Physics Laboratories in Britain (Romualdas Sviedrys); The Establishment of the Royal College of Chemistry: An Investigation of the Social Context of Early-Victorian Chemistry (Gerrylynn K. Roberts) Originally published in 1976. The Princeton Legacy Library uses the latest print-on-demand technology to again make available previously out-of-print books from the distinguished backlist of Princeton University Press. These editions preserve the original texts of these important books while presenting them in durable paperback and hardcover editions. The goal of the Princeton Legacy Library is to vastly increase access to the rich scholarly heritage found in the thousands of books published by Princeton University Press since its founding in 1905.

This volume documents the role of creational theology in discussions of natural philosophy, medicine and technology from the Hellenistic period to the early twentieth century. Four principal themes are the comprehensibility of the world, the unity of heaven and earth, the relative autonomy of nature, and the ministry of healing. Successive chapters focus on Greco-Roman science, medieval Aristotelianism, early modern science, the heritage of Isaac Newton, and post-Newtonian mechanics. The volume will interest historians of science and historians of the idea of creation. It simultaneously details the persistence of tradition and the emergence of modernity and provides the historical background for later discussions of creation and evolution.

Noakes' revelatory analysis of Victorian scientists' fascination with psychic phenomena connects science, the occult and religion in intriguing new ways.

This book presents a perspective on the history of theoretical physics over the past two hundreds years. It comprises essays on the history of pre-Maxwellian electrodynamics, of Maxwell's and Hertz's field theories, and of the present century's relativity and quantum physics. A common thread across the essays is the search for and the exploration of themes that influenced significant con ceptual changes in the great movement of ideas and experiments which heralded the emergence of theoretical physics (hereafter: TP). The fun. damental change involved the recognition of the scien tific validity of theoretical physics. In the second half of the nine teenth century, it was not easy for many physicists to understand the nature and scope of theoretical physics and of its adept, the theoreti cal physicist. A physicist like Ludwig Boltzmann, one of the eminent contributors to the new discipline, confessed in 1895 that, "even the formulation of this concept [of a theoretical physicist] is not entirely without difficulty". 1 Although science had always been divided into theory and experiment, it was only in physics that theoretical work developed into a major research and teaching specialty in its own right. 2 It is true that theoretical physics was mainly a creation of tum of-the century German physics, where it received full institutional recognition, but it is also undeniable that outstanding physicists in other European countries, namely, Ampere, Fourier, and Maxwell, also had an important part in its creation.

How far is scientific knowledge a product of social life? In addressing this question, the major contributors to the sociology of knowledge have agreed that the conclusions of science are dependent on social action only in a very special and limited sense. In Science and the Sociology of Knowledge Michael Mulkay's first aim is to identify the philosophical assumptions which have led to this view of science as special; and to present a systematic critique of the standard philosophical account of science, showing that there are no valid epistemological grounds for excluding scientific knowledge from the scope of sociological analysis. The rest of the book is devoted to developing a preliminary interpretation of the social creation of scientific knowledge. The processes of knowledge-creation are delineated through a close examination of recent case studies of scientific developments. Dr Mulkay argues that knowledge is produced by means of negotiation, the outcome of which depends on the participants' use of social as well as technical resources. The analysis also shows how cultural resources are taken over from the broader social milieu and incorporated into the body of certified knowledge; and how, in the political context of society at large, scientists' technical as well as social claims are conditioned and affected by their social position.

Consisting of separate cases organized by chapter and divided into independent sections, this is no ordinary history of science book. Between the Earth and the Heavens is an episodic history of modern physical sciences covering the chronological development of physics, chemistry and astronomy since about 1860. Integrating historical authenticity and modern scientific knowledge, the cases within deal with the often surprising connections between science done in the laboratory (physics, chemistry) and science based on observation (astronomy, cosmology).Between the Earth and the Heavens presupposes an interest in and a certain knowledge of the physical sciences, but it is written for non-specialists and includes only a limited number of equations which are all clearly explained in simple terms. For readers who wish to delve further, the book is fully documented and ends with a bibliography of cited quotations and other relevant sources.

No one has given the polymath Thomas Young (1773–1829) the all-round examination he so richly deserves—until now. Celebrated biographer Andrew Robinson portrays a man who solved mystery after mystery in the face of ridicule and rejection, and never sought fame. As a physicist, Young challenged the theories of Isaac Newton and proved that light is a wave. As a physician, he showed how the eye focuses and proposed the three-colour theory of vision, only confirmed a century and a half later. As an Egyptologist, he made crucial contributions to deciphering the Rosetta Stone. It is hard to grasp how much Young knew. This biography is the fascinating story of a driven yet modest hero who cared less about what others thought of him than for the joys of an unbridled pursuit of knowledge—with a new foreword by Martin Rees and a new postscript discussing polymathy in the two centuries since the time of Young. It returns this neglected genius to his proper position in the pantheon of great scientific thinkers.