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Books > Science & Mathematics > Science: general issues > History of science
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.
This book examines how modern medicine's mechanistic conception of the body has become a defense mechanism to cope with death anxiety. Robbins draws from research on the phenomenology of the body, the history of cadaver dissection, and empirical research in terror management theory to highlight how medical culture operates as an agent which promotes anesthetic consciousness as a habit of perception. In short, modern medicine's comportment toward the cadaver promotes the suppression of the memory of the person who donated their body. This suppression of the memorial body comes at the price of concealing the lived, experiential body of patients in medical practice. Robbins argues that this style of coping has influenced Western culture and has helped to foster maladaptive patterns of perception associated with experiential avoidance, diminished empathy, death denial, and the dysregulation of emotion.
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.
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.
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.
Though best known for his superlative poetry and plays, Johann Wolfgang von Goethe (1749-1832) also produced a sizable body of scientific work that focused on such diverse topics as plants, color, clouds, weather, and geology. Goethe's way of science is highly unusual because it seeks to draw together the intuitive awareness of art with the rigorous observation and thinking of science. Written by major scholars and practitioners of Goethean science today, this book considers the philosophical foundations of Goethe's approach and applies the method to the real world of nature, including studies of plants, animals, and the movement of water. Part I discusses the philosophical foundations of the approach and clarifies its epistemology and methodology; Part II applies the method to the real world of nature; and Part III examines the future of Goethean science and emphasizes its great value for better understanding and caring for the natural environment.
This volume offers a selection of the best contributions by Russian scholars--historians and philosophers of science--to the Einstein Studies industry, broadly construed. Most of the papers included here were first published in Russian in the 'Einshteinovskiy Sbornik' series (Einstein Studies), the first of its kind, and initiated in 1966 by Nobel Prize winner Igor Tamm. From 1966-1990, fourteen volumes of the 'Sbornik' were published by Nauka, the chief academic publisher in the former Soviet Union. The book explores such topics as the historical and foundational issues in general relativity and relativistic cosmology, Einstein's contributions to quantum theory of radiation, and the rise of Dirac's quantum electrodynamics. The volume also includes a detailed description of the physics colloquium Einstein established and coordinated in 1912-1914 in Zurich. The contributors draw extensively on documentation previously unavailable to most scholars. Thus the materials from various Russian archives shed new light on the famous exchange (regarding the first evolutionary cosmological models) between Einstein and Aleksandr Friedmann in the early 1920s and on the role of Boris Podolsky and Vladimir Fock in the emergence of quantum electrodynamics. The little- known correspondence between Einstein and a famous German pilot Paul Ehrhardt suggests that, during World War I, Einstein was involved with aero- and hydrodynamics and thought about ways of improving airfoil design. Other articles discuss new approaches to important questions in the foundations of general relativity and cosmology. Historians, philosophers, and sociologists of science should be prepared to find much new and unexpected material in this engaging volume presenting the best of the recent Russian scholarship in the field. The book will be accessible to the general reader as well.
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
In the letters contained in this book, David Bohm argues that the dominant formal, mathematical approach in physics is seriously flawed. In the 1950s and 60s, Bohm took a direction unheard of for a professor of theoretical physics: while still researching in physics, working among others with Yakir Aharanov and later Jeffrey Bub, he also spent time studying "metaphysics"-such as Hegel's dialectics and Indian panpsychism. 50 years on, questions raised about the direction and philosophical assumptions of theoretical physics show that Bohm's arguments still have contemporary relevance.
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.
For the past 20 years causality violations and superluminal motion have been the object of intensive study as physical and geometrical phenomena. This book compiles the results of its author and also reviews other work in the field. In particular, the following popular questions are addressed: Is causality protected by quantum divergence at the relevant Cauchy horizon? How much "exotic matter" would it take to create a time machine or a warp drive? What is the difference between a "discovered" time machine and a created one? Why does a time traveler fail to kill their grandfather? How should we define the speed of gravity and what is its magnitude?
The critically acclaimed laboratory standard, Methods in Enzymology, is one of the most highly respected publications in the field of biochemistry. Since 1955, each volume has been eagerly awaited, frequently consulted, and praised by researchers and reviewers alike. The series contains much material still relevant today - truly an essential publication for researchers in all fields of life sciences.
Translated from the original French and annotated with figures, historical maps and commentary from the translators, this work is Jean-Charles Houzeau's account of his escape from Texas during the American Civil War. Houzeau was a Belgian astronomer who worked a couple of years as assistant astronomer at the Brussels Observatory, but eventually moved to the United States. He was living as a frontierman in Texas when the Civil War broke out, and because he took an abolitionist stance and helped slaves escape, he was forced to flee to Mexico, from where he sailed to New Orleans on board of a US military vessel. Originally titled La terreur blanche au Texas et mon 'evasion, Houzeau captured the details of his escape in 1862.The editors, an astronomer and a French language teacher, have added supplementary material to give the readers more depth and historical context to the story.
The Treaty on the Nonproliferation of Nuclear Weapons (NPT), is the cornerstone of non-proliferation and disarmament efforts.Yet its negotiation and success were not inevitable. This book aims to address the developments that led to the negotiation of the treaty, examine its implementation, and address challenges that the NPT faces going forward.
This collection discusses and illustrates how educational research is affected by the economic, institutional and physical contingencies of its time, and in our time even increasingly is driven by them. It is argued that the antidote to this is, however, not to aspire to 'thought itself', but instead to do justice to its own rootedness in the 'material', including textuality. From an historical point of view such an innovative approach can itself revamp the material scholarly culture and the way it is represented. The chapters address a variety of topics such as the cultural heritage of the school desk, the significance of images for research into long-term educational processes, the way iconic signs function, and how modes of enquiry relate to the materiality of education. Attention is also given to standards for reporting on educational research studies and how these limit the scope and communication and moreover shape researchers, to the forms of citation practices as substantially influencing methods and content, and to the centrality of conversation not just as the means to an end but as what matters; further to representational and to non-representational theories for educational research. Some examples are drawn from the area of arts-based educational research, from mathematics education, and from the discourse on universities.
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.
This book shows how contagionism evolved in eighteenth century Britain and describes the consequences of this evolution. By the late eighteenth century, the British medical profession was divided between traditionalists, who attributed acute diseases to the interaction of internal imbalances with external factors such as weather, and reformers, who blamed contagious pathogens. The reformers, who were often "outsiders," English Nonconformists or men born outside England, emerged from three coincidental transformations: transformation in medical ideas, in the nature and content of medical education, and in the sort of men who became physicians. Adopting contagionism led them to see acute diseases as separate entities, spurring a process that reoriented medical research, changed communities, established new medical institutions, and continues to the present day.
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.
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