The Evolution of Scientific Knowledge aims to reach a unique understanding of science with the help of economic and sociological theories. The economic theories used are institutionalist and evolutionary. The sociological theories draw from the type of work on social studies of science that have, in recent decades, transformed our picture of science and technology. Science - and more broadly research - is a field where economics and sociology meet in an attempt to understand how complex organizations emerge and work. While the authors argue that science is neither an institution nor an order that emerged as the result of conscious and willful design, nor is it like a 'normal' market, they also acknowledge that science has aspects of market orders and aspects of orders created by design. Furthermore, science develops in specific ways that are to some extent like the development of economic systems, and at the same time are very different. This fascinating book will be of great interest to economists, philosophers, historians and sociologists by focussing on a multidisciplinary understanding of science.

This research monograph provides a synthesis of a number of statistical tests and measures, which, at first consideration, appear disjoint and unrelated. Numerous comparisons of permutation and classical statistical methods are presented, and the two methods are compared via probability values and, where appropriate, measures of effect size. Permutation statistical methods, compared to classical statistical methods, do not rely on theoretical distributions, avoid the usual assumptions of normality and homogeneity of variance, and depend only on the data at hand. This text takes a unique approach to explaining statistics by integrating a large variety of statistical methods, and establishing the rigor of a topic that to many may seem to be a nascent field in statistics. This topic is new in that it took modern computing power to make permutation methods available to people working in the mainstream of research. lly-informed="" audience,="" and="" can="" also="" easily="" serve="" as="" textbook="" in="" graduate="" course="" departments="" such="" statistics,="" psychology,="" or="" biology.="" particular,="" the="" audience="" for="" book="" is="" teachers="" of="" practicing="" statisticians,="" applied="" quantitative="" students="" fields="" medical="" research,="" epidemiology,="" public="" health,="" biology.

A survey of the interaction between science and Anglo-American literature from the late medieval period to the 20th century, examining how authors, thinkers, and philosophers have viewed science in literary texts, and used science as a window to the future. Spanning six centuries, this survey of the interplay between science and literature in the West begins with Chaucer's Treatise on the Astrolabe and includes commentary on key trends in contemporary literature. Beginning with the birth of science fiction, the authors examine the works of H. G. Wells and Jules Verne as well as Mary Shelley's Frankenstein within the context of a wider analysis of the impact of major historical developments like the Renaissance, the scientific revolution, the Enlightenment, and Romanticism. The book balances readings of literature with explanations of the impact of key scientific ideas. Focusing primarily on British and American literature, the book also takes an informed but accessible approach to the history of science, with seminal scientific works discussed in a critical rather than overly theoretical manner. Gives clear explanations of scientific ideas ranging from medieval cosmology to modern concepts in astronomy Organizes the material in chronological order with a chronology and bibliographic essay accompanying each chapter

The zodiac was first clearly defined by the Babylonians some 2500 years ago, but until recently the basis of this original definition remained unknown. This zodiac of the Babylonians, known as the sidereal zodiac because it is specified in direct relation to the stars (Latin sideris, 'starry'), was used for centuries throughout the ancient world, all the way to India, and must be distinguished from the tropical zodiac in widespread use by astrologers in the West today, which was introduced only in the middle of the second century A.D. by the Greek astronomer Claudius Ptolemy. Such was Ptolemy's influence, however, that the tropical zodiac gained prominence and, except for its survival (in a variant form) in India, knowledge of the sidereal zodiac was lost. In this thrilling study of the history of the zodiac, first submitted in 2004 as his Ph.D. thesis, Robert Powell rescues the the sidereal zodiac from the dusts of time, tracing it back to the Babylonians in the sixth/fifth centuries B.C. The implications of this discovery-among them the restitution of the sideral zodiac to its rightful place at the heart of astrology-are immense, they key point being that the signs of the sidereal zodiac, each thirty degrees long, coincide closely with the twelve astronomical constellations of the same name, whereas the signs of the tropical zodiac, since they are defined in relation to the vernal point, now have no direct relationship to the corresponding zodiacal constellations, owing to the precession of the equinoxes.This revolutionary history of the zodiac includes chapters on the Egyptian decans and the Hindu nakshatras, showing how these sidereal divisions, which originated in Egypt and India, are related to the original Babylonian zodiac. It also sheds light on the controversy surrounding the 'zodiac question' (tropical vs. sidereal), illuminating the history of the tropical zodiac-showing that originally it was not a zodiac at all, but a calendar for describing the course of the seasons This book, the fruit of thirty years of research, is intended not only for scholars but for general readers as well, and offers the clearest and most comprehensive study of the history of the zodiac yet published.

Scientists, historians and archaeologists are at last beginning to collaborate seriously on studies of the long-term history of the environment. The fruit of an international conference held in Rome in 2011, The Ancient Mediterranean Environment between Science and History brings together scientists and scholars who are interested in the interaction of their several disciplines as well as in specific problems such as the effects of climate change and other environmental factors on historical developments and events, the sources of the energy and fuel used in ancient civilizations, and the effects of humans on the lands around the Mediterranean. The collection balances broad Mediterranean-wide studies and tightly focused studies of particular regions in Italy and Jordan.

The essays in Copernirus and his Successors deal both with the influences on Copernicus, including that of Greek and Arabic thinkers, and with his own life and attitudes. They also examine how he was seen by contemporaries and finally describe his relationship to other scientists, including Galileo, Brahe and Kepler.

This book addresses a wide range of topics relating to the properties and behavior of condensed matter under extreme conditions such as intense magnetic and electric fields, high pressures, heat and cold, and mechanical stresses. It is divided into four sections devoted to condensed matter theory, molecular chemistry, theoretical physics, and the philosophy and history of science. The main themes include electronic correlations in material systems under extreme pressure and temperature conditions, surface physics, the transport properties of low-dimensional electronic systems, applications of the density functional theory in molecular systems, and graphene. The book is the outcome of a workshop held at the University of Catania, Italy, in honor of Professor Renato Pucci on the occasion of his 70th birthday. It includes selected invited contributions from collaborators and co-authors of Professor Pucci during his long and successful career, as well as from other distinguished guest authors.

WAN Zhaoyuan analyses how Chinese intellectuals conceived of the relationship between 'science' and 'religion' through in-depth examination of the writings of Kang Youwei, a prominent political reformer and radical Confucian thinker, often referred to by his disciples as the 'Martin Luther of Confucianism'. Confronted with the rise of scientism and challenged by the Conflict Thesis during his life among adversarial Chinese New Culture intellectuals, Kang maintains a holistic yet evolving conception of a compatible and complementary relationship between scientific knowledge and 'true religion' exemplified by his Confucian religion (kongjiao). This close analysis of Kang's ideas contributes to a richer understanding of the history of science and religion in China and in a more global context.

In a relatively brief but masterful recounting, Professor Ulf Lagerkvist traces the origins and seminal developments in the field of chemistry, highlighting the discoveries and personalities of the individuals who transformed the ancient myths of the Greeks, the musings of the alchemists, the mystique of phlogiston into the realities and the laws governing the properties and behavior of the elements; in short, how chemistry became a true science. A centerpiece of this historical journey was the triumph by Dmitri Mendeleev who conceived the Periodic Law of the Elements, the relation between the properties of the elements and their atomic weights but more precisely their atomic number. Aside from providing order to the elements known at the time, the law predicted the existence and atomic order of elements not then known but were discovered soon after. An underlying but explicit intent of Lagerkvist's survey is to address what he believes was a gross injustice in denying Mendeleev the Nobel Prize in Chemistry in 1905 and again in 1906. Delving into the Royal Swedish Academy of Sciences' detailed records concerning the nominations, Lagerkvist reveals the judging criteria and the often heated and prejudicial arguments favoring and demeaning the contributions of the competing contenders of those years. Lagerkvist, who was a member of the Swedish Academy of Sciences and has participated in judging nominations for the chemistry prize, concludes: It is in the nature of the Nobel Prize that there will always be a number candidates who obviously deserve to be rewarded but never get the accolade--Mendeleev was one of those.

This volume features essays that explore the insights of the 14th-century Parisian nominalist philosopher, John Buridan. It serves as a companion to the Latin text edition and annotated English translation of his question-commentary on Aristotle's On the Soul. The contributors survey Buridan's work both in its own historical-theoretical context and in relation to contemporary issues. The essays come in three main sections, which correspond to the three books of Buridan's Questions. Coverage first deals with the classification of the science of the soul within the system of Aristotelian sciences, and surveys the main issues within it. The next section examines the metaphysics of the soul. It considers Buridan's peculiar version of Aristotelian hylomorphism in dealing with the problem of what kind of entity the soul (in particular, the human soul) is, and what powers and actions it has, on the basis of which we can approach the question of its essence. The volume concludes with a look at Buridan's doctrine of the nature and functions of the human intellect. Coverage in this section includes the problem of self-knowledge in Buridan's theory, Buridan's answer to the traditional medieval problem concerning the primary object of the intellect, and his unique treatment of logical problems in psychological contexts.

The large telescope at Meudon has become legendary. When it was conceived, after 1870, astronomy as a whole was limited to visual observation. Knowledge of the sky was limited to what one could see, assisted only by optical means. The large telescopes produced at this time produced larger images, permitting close-up views: the Meudon telescope was able to accomplish this perfectly. At Meudon, which became the Mecca of visual observation, the major planets were examined in a way that no other telescope had previously been able to. The telescope monitored the state of their atmospheres and mapped the appearance of their surfaces. Through the telescope, one could obtain photographs showing the nuclei of comets, revealing their very small size, and by using an eyepiece one could measure the separation of double stars. With a marvellous little instrument, the polarimeter, the nature of clouds in planetary atmospheres has been determined, and the type of surface material identified. Many more results were obtained, while photography, universally adopted, revolutionized other knowledge about the world. The sensitive emulsion, combined with large aperture reflecting telescopes, revealed the deepness and richness of the cosmos. The vast telescope of Meudon, which was the largest refracting telescope in Europe, became a legendary instrument and was symbolic of a new way to practice astronomy. Audouin Dollfus, a renowned astronomer, describes the great years of the Meudon telescope. He gives us the entire story of this instrument, from the birth of the concept that drove Jules Janssen at the end of the nineteenth century, to the idea that French astronomy could provide an outstanding telescope which would approach the limits of technical and industrial resources. The telescope remained unchanged until 2006, when the first steps toward restoration and public reopening were taken.

The history of the modern sciences has long overlooked the significance of domesticity as a physical, social, and symbolic force in the shaping of knowledge production. This book provides a welcome reorientation to our understanding of the making of the modern sciences globally by emphasizing the centrality of domesticity in diverse scientific enterprises.

According to Egyptian mythology, when the god Re cried, his tears turned into bees upon touching the ground. Beyond the realm of myth, the honey bee is a surprisingly common and significant motif in Egyptian history, playing a role in the mythology, medicine, art, and food of the ancient culture. In The Tears of Re: Beekeeping in Ancient Egypt, entomologist Gene Kritsky presents the first full-length discussion of the ways in which bees were a part of life in ancient Egypt, shedding light on one of the many mysteries of the ancient world. Kritsky delves into ancient Egypt's complex society, revealing that bees had a significant presence in everything from death rituals to trade. In fact, beekeeping was a state-controlled industry, and in certain instances honey could even be used to pay taxes! Honey was used both to sweeten foods and treat cuts, and was sometimes used as a tribute or offering. From the presence of bees in paintings and hieroglyphs in tombs to the use of beeswax in a variety of products, bees had a significant presence in ancient Egyptian culture. Richly illustrated and engagingly written, The Tears of Re will appeal to anyone with a passion for beekeeping, Egypt, or the ancient world.

Where did we do science in the Enlightenment and why? This volume brings together leading historians of Early Modern science to explore the places, spaces, and exchanges of Enlightenment knowledge production. Adding to our understanding of the "geographies of knowledge", it examines the relationship between "space" and "place", institutions, "objects", and "ideas", showing the ways in which the location of science really matters. Contributors are Robert Iliffe, Victor Boantza, Margaret Carlyle, Jasmine Kilburn-Toppin, Trevor H. Levere, Alice Marples, Gordon McOuat, Larry Stewart, Marie Thebaud-Sorger, and Simon Werrett.

An eye-opening history of the technology that harnessed electricity and powered the greatest scientific and technological advances of our time.

What begin as a long-running dispute in biology, involving a dead frog's twitching leg, a scalpel, and a metal plate, would become an invention that transformed the history of the world: the battery. Science journalist Henry Schlesinger traces the history of this essential power source and demonstrates its impact on our lives, from Alessandro Volta's first copper-and-zinc model in 1800 to twenty-first-century technological breakthroughs. Schlesinger introduces the charlatans and geniuses, the paupers and magnates, who were attracted to the power of the battery.

Just how far did Charles Darwin's luck - both good and bad - affect his life and scientific discoveries? One might make a case for saying that Darwin's life was dogged by ill-luck (or perhaps ill-fortune is more appropriate). His mother died when he was seven; he was sent to a school at which he 'learnt little'; he left Edinburgh Medical School after two years, unqualified. He undertook a five-year voyage although he was prone to sea-sickness; his girlfriend (of whom there is evidence he was very fond) married someone else a few months into this voyage. He was affected by ill-health throughout much of his life. One of his children appears to have been mentally handicapped and this child, and also his beloved Annie, died in infancy. In addition to all this, his brother became addicted to drugs.On the other hand one could argue that he had a privileged and fortunate life - perhaps the more common view. At a number of key points in his life he made a choice, or others made a choice, or circumstances occurred, that profoundly influenced the path that he took. There is a school of thought, one that this book investigates, that although Darwin came to the right conclusions, he did not actually follow the right path in getting there. While his science was sometimes flawed, he had the distinct knack of good instinct. Whilst on his voyage to the Galapagos vital evidence that would have led to his theories becoming clearer quite literally slipped through his fingers - Galapagos turtles were caught, examined and their shells thrown overboard. Had he been more thorough, Darwin may have noticed that the clues to his theory of evolution were on these very shells.

The sea is steadily rising, presently at ~3.4 mm/y, already costing Billions in Venice, on the Thames River and in New York City, to counter sea-level-related surges. Experts anticipate an accelerated rise, and credible predictions for sea level rise by the year 2100 range from 12 inches to above 6 feet. Study of the Earth's geologic history, through ice-core samples, links sea level rise to temperature rise. Since the lifetime of carbon dioxide in the atmosphere is measured in centuries, and it has upset the balance of incoming and outgoing energy, the Earth's temperature will continue to rise, even if carbon burning ceases. Engineering the Earth's solar input appears increasingly attractive and practical as a means to lower Earth's temperature, and thus, to lower sea level. The cost of engineering the climate appears small, comparable, even, to the already-incurred costs of sea level rise represented by civil engineering projects in London, Venice and New York City. Feasible deployment of geoengineering, accompanied by some reduction in carbon burning, is predicted to lower the sea level by the order of one foot by 2100 AD, negating the expected rise, to provide an immense economic benefit. The accompanying lower global temperature would reduce the severity of extreme weather, and restore habitability to lethally hot parts of the world. This book is primarily conceived to aid and inform the educated citizen: aspects may also interest climate workers.