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A large part of the structure that is recognized and understood in the vacuum (Weinberg, 1995; Weinberg, 1996) and in condensed matter (Ma, 1976; Mahan, 1990; Goldenfeld, 1992) is the result of a hierarchy of phase transitions in either quantum-mechanical or thermodynamic systems. Each phase transition creates a form of long-range order among components of the system that in the absence of the phase transition could fluctuate independently. To the extent that the phase transitions are nested or sequential in order of decreasing energy or increasing spatial scale, both of which correlate with increasing age of the universe, the progression through the sequence and the accretion of additional forms of long-range order constitute a progression of complexity.
In this chapter I argue that phase transition continues to be the appropriate paradigm in which to understand the emergence of the biosphere on Earth, and that at least some universal patterns in life should be understood as what are called the order parameters (Goldenfeld, 1992) of one or more such transitions. The phase transitions that formed the biosphere, however, are dynamical transitions rather than equilibrium transitions, and this distinction requires a different class of thermodynamic descriptions and leads to some striking differences in gross phenomenology from what has become familiar from equilibrium systems.
The origin of spatiotemporal order in physical and biological systems is a key scientific question of our time. How does microscopic matter self-organize to create living and non-living macroscopic structures? Do systems capable of generating spatiotemporal complexity obey certain universal principles? We propose that progress along these questions may be made by searching for fundamental properties of non-linear field models which are common to several areas of physics, from elementary particle physics to condensed matter and biological physics. In particular, we've begun exploring what models that support localized coherent (soliton-like) solutions – both time-dependent and time-independent – can tell us about the emergence of spatiotemporal order. Of interest to us is the non-equilibrium dynamics of such systems and how it differs when they are allowed to interact with external environments. It is argued that the emergence of spatiotemporal order delays energy equipartition and that growing complexity correlates with growing departure from equipartition. We further argue that the emergence of complexity is related to the existence of attractors in field configuration space and propose a new entropic measure to quantify the degree of ordering of localized energy configurations.
SOLITONS AND SELF-ORGANIZATION
A key question across the natural sciences is how simple material entities self-organize to create coherent structures capable of complex behavior. As an example, phenomena as diverse as water waves and symmetry-breaking during phase transitions can give rise to solitons, topologically or non-topologically stable spatially-localized structures (“energy lumps”) that keep their profiles as they move across space. They beautifully illustrate cooperative behavior in Nature, that is, how interacting discrete entities work in tandem to generate complex structures that minimize energy and other physical quantities (Infeld & Rowlands, 2000; Walgraef, 1997; Cross & Hohenberg, 1993; Rajamaran, 1987; Lee & Pang, 1992).
Frederick Smeeton Williams (1829–86) was a Congregational minister and pioneering railway historian. His first major transport work, Our Iron Roads (1852), enjoyed significant popularity, reaching its seventh edition by 1888. This, his second such effort, first published in 1876, is a lively history of the incorporation and development of one of Britain's first major railway companies following the earliest large-scale railway amalgamation of the Victorian age. Including 123 illustrations and 7 maps, this book is especially valuable for its contemporary description of the building of the Settle and Carlisle line, a notoriously difficult and expensive route to construct, with costs reaching £3.8 million by the time of its opening in 1875. Williams's spirited style lends colour to his portrayal of the Midland Railway's beginnings, its increasing competitiveness and the everyday concern of railway operations, making this an engaging resource for historians of transport, business and engineering.
Thomas Wright (1810–77) was a highly prolific scholar of Old and Middle English and archaeology, although some of his work, particularly that on prehistory, was contentious. The present work, which he edited and published in 1863, comprises two texts by Alexander Neckam (1157–1217). The son of Richard I's foster mother, Neckam was a respected teacher and prolific scholar who became abbot of Cirencester. The larger of these texts, De naturis rerum, consists of a scientific manual followed by a theological treatise, a commentary on Ecclesiastes. Neckam later produced an abbreviated verse form of this, the second text found here. The first part of each text is a compendium of all the scientific knowledge of western Europe and England in the twelfth century, which Neckam aimed to treat morally as well as factually. In producing this edition, Wright has included the Latin marginal annotations, possibly by Neckam himself, found in his manuscript exemplars.
Originally a maker of wax anatomical models, William Fothergill Cooke (1806–79) became aware of the new electric telegraph while he studied anatomy in Germany. Hoping initially for a return of perhaps a hundred pounds from the English railway companies, he abandoned his studies and turned his attention to the commercial development of the technology, which, though demonstrable in laboratory conditions, was still little understood. Because the process relied on secrecy and many different clockmakers and engineers, it soon became so fraught that Cooke almost gave up before its completion. However, after receiving the encouragement of Michael Faraday and joining forces with Charles Wheatstone, Cooke finally brought his plans to fruition and eventually set up the Electric Telegraph Company in 1846. First published in 1895, this book includes a selection of his private letters, written as he worked and often movingly uncertain, as well as a short memoir.
In the 1940s and 1950s, British and American journals published a flood of papers by doctors, pathologists, geneticists and anthropologists debating the virtues of two competing nomenclatures used to denote the Rhesus blood groups. Accounts of this prolonged and often bitter episode have tended to focus on the main protagonists' personalities and theoretical commitments. Here I take a different approach and use the literature generated by the dispute to recover the practical and epistemic functions of nomenclatures in genetics. Drawing on recent work that views inscriptions as part of the material culture of science, I use the Rhesus controversy to think about the ways in which geneticists visualized and negotiated their objects of research, and how they communicated and collaborated with workers in other settings. Extending recent studies of relations between different media, I consider the material forms of nomenclatures, as they were jotted in notebooks, printed in journals, scribbled on blackboards and spoken out loud. The competing Rhesus nomenclatures had different virtues as they were expressed in different media and made to embody commitments to laboratory practices. In exploring the varied practical and epistemic qualities of nomenclatures I also suggest a new understanding of the Rhesus controversy itself.
The aim of this paper is to show how the Greek men of science negotiated a role for their enterprise within the Greek public sphere, from the institution of the modern Greek state in the early 1830s to the first decades of the twentieth century. By focusing on instances where they appeared in public in their official capacity as scientific experts, I describe the rhetorical schemata and the narrative strategies with which Greek science experts engaged the discourses prevalent in nineteenth- and early twentieth-century Greece. In the end, my goal is to show how they were neither zealots of modernization nor neutral actors struggling in isolated wastelands. Rather, they appear as energetic agents who used scientific expertise, national ideals and their privileged cultural positions to construct a rhetoric that would further all three. They engaged eagerly and consistently with emerging political views, scientific subjects and cultural and political events, without presenting themselves, or being seen, as doing anything qualitatively different from their peers abroad. Greek scientists cross-contextualized the scientific enterprise, situating it in the space in which they were active.
In this paper I argue that William Harvey believed in a form of astrology. It has long been known that Harvey employed a macrocosm–microcosm analogy and used alchemical terminology in describing how the two types of blood change into one another. This paper then seeks to examine a further aspect of Harvey in relation to the magical tradition. There is an important corollary to this line of thought, however. This is that while Harvey does have a belief in astrology, it is strongly related to Aristotle's views in this area and is quite restricted and attenuated relative to some contemporary beliefs in astrology. This suggests a more general thesis. While Harvey was amenable to ideas which we associate with the natural magic tradition, those ideas had a very broad range of formulation and there was a limit to how far he would accept them. This limit was largely determined by Harvey's adherence to Aristotle's natural philosophy and his Christian beliefs. I argue that this is also the case in relation to Harvey's use of the macrocosm–microcosm analogy and of alchemical terminology, and, as far as we can rely on the evidence, this informs his attitudes towards witches as well. Understanding Harvey's influences and motives here is important in placing him properly in the context of early seventeenth-century thought.
The interwar period in France is characterized by intense activity to disseminate science in society through various media: magazines, conferences, book series, encyclopedias, radio, exhibitions, and museums. In this context, the scientific community developed significant attempts to disseminate science in close alliance with the State. This paper presents three ambitious projects conducted in the 1930s which targeted different audiences and engaged the social sciences along with the natural sciences. The first project was a multimedia enterprise aimed at bridging what would later be named “the two cultures” – natural sciences and humanities – rather than at popularizing scientific results in the society at large. The second project, an encyclopedia named Encyclopédie française edited by the French historian Lucien Febvre, was meant to shape a cultural view of science for the general public. The third project and the most successful enterprise was the Palais de la découverte designed by the physicist Jean Perrin and explicitly aimed at attracting the young public. This paper explores the paradoxes that resulted from these large enterprises. Despite their social ideals, the scientists-popularizers favored an elitist concept of popular science essentially aimed at integrating science into high culture. While they strove to overcome the increased specialization of sciences, their efforts nevertheless accelerated the professionalization of scientific research and the isolation of science in an ivory tower. In their attempts to get closer to the public, they eventually contributed to spreading the cliché of the increasing gap between the scientists and the public.
This article is based on a detailed survey of three British popular science magazines published during the interwar years. It focuses on the authors who wrote for the magazines, using the information to analyze the ways in which scientists and popular writers contributed to the dissemination of information about science and technology. It shows how the different readerships toward which the magazines were directed (serious or more popular) determined the proportion of trained scientists who provided material for publication. The most serious magazine, Discovery, featured almost exclusively material written by professional scientists, while the most popular, Armchair Science, favored writers who were not professional scientists, but who probably had some technical knowledge. Another magazine, Conquest, tried to provide a balance between authoritative and popular articles; however, it survived for only a few years.
The history of Italian “popular science” publishing from the 1860s to the 1930s provides the context to explore three phenomena: the building of a scientific community, the entering of women into higher education, and (male) scientists’ reaction to women in science. The careers of Evangelina Bottero (1859–1950) and Carolina Magistrelli (1857–1939), science writers and teachers in an institute of higher education, offer hints towards an understanding of those interrelated macro phenomena. The dialogue between a case study and the general context in a comparative perspective will help us understand why Italian scientists, in the last decades of the nineteenth century, unlike their British colleagues, did not close the doors of the university on women. The case confirms the history of so-called popular science as a useful tool for historians of science generally and also when dealing with the awakening of a new social actor: in this case the “new woman” who, from the 1870s, was determined to take up science in a professional capacity.
German twentieth-century history is characterized by stark changes in the political system and the momentous consequences of World Wars I and II. However, instead of uncovering specific kinds or periods of “Kaiserreich science,” “Weimar science,” or “Nazi science” together with their public manifestations and in such a way observing a narrow link between popular science and political orders, this paper tries to exhibit some remarkable stability and continuity in popular science on a longer scale. Thanks to the rich German history of scientific leadership in many fields, broad initiatives for science popularization, and a population and economy open to scientific progress, the media offered particularly rich popular science content, which was diversified for various audiences and interests. Closer consideration of the format, genre, quality, and quantity of popular science, and of the uses and value audiences attributed to it, along with their respective evolution, reveals infrastructures underpinning science communication. Rather than dealing with specific discourses, the conditions of science communication are at the center of this article. Therefore I focus on the institutions, rules, laws, and economies related to popular science, as well as on the philosophical, moral, and national propositions related to it, and also on the interactions among this ensemble of rather heterogeneous elements. This approach allows a machinery of popular scientific knowledge to be identified, in Foucauldian terms a dispositif, one which is of a particularly cultural nature.
This paper analyzes the political dimension of Miguel Masriera's (1901–1981) science popularization program. In the 1920s, Masriera worked at the Swiss Federal Institute of Technology (ETH) in Zurich – with Hermann Staudinger, the luminary of polymer chemistry – to later become a lecturer of theoretical and physical chemistry at the University of Barcelona. After living in exile in Paris, at the end of the Civil War he returned to Spain but never recovered his position. Instead, Masriera became an active popular science writer and adapted to the severe constraints of General Franco's military dictatorship (1939–1975). Inspired by the astronomer Arthur Eddington's world view, Masriera wrote and translated popular science books, and published articles in daily newspapers and journals. By examining Masriera's popular works, in particular his program for spreading “atomic culture” in Spain during the Cold War, this paper aims to contribute to the assessment of the role of science popularization in the domestic legitimization of that dictatorial regime and also its use as a vehicle for international recognition abroad.
By the late nineteenth century, science pedagogues and academicians became involved in a vast movement to popularize science throughout the Russian empire. With the aftermath of the 1917 Bolshevik Revolution, many now found the new Marxist state a willing supporter of their goals of spreading science to an under-educated public. In the Stalin era, Soviet state officials believed that the spread of science and technology had to coalesce with the Communist Party's utilitarian goals and needs to revive the industrial sector of the economy. This resulted in a new Stalinist technologically oriented popularization campaign. In the Khrushchev era (1953–64), Soviet politicians became increasingly more aware of the competitive power of Soviet technology in the global arena and developed extensive campaigns to publicize Soviet feats for a broad domestic and foreign public audience. This was particularly true for topics such as the space program and big technologies such as nuclear power.
In a recent book on The Publics of Science; Experts and Laymen Through History, Agustí Nieto-Galan introduced his subject of a (mostly Western) history of public science, covering the times from the Scientific Revolution to the twenty-first century, with reference to Sigmund Freud. In one of his essays of cultural critique, Freud had, so to speak, put culture itself on his couch, and this session also featured talk about science and technological application. Civilization and Its Discontents identified a factor of disillusionment in the progress of science and technology, which gave rise to “The Uneasiness in Culture” (the literal translation of the title of Freud's German essay Das Unbehagen in der Kultur), and this uneasiness tainted a great deal of the happiness science and technology were intended to cultivate (Nieto-Galán 2011; Freud 1930). New technology and inventions like telephones, ocean liners, or drugs, Freud argued, were mostly remedies for negative developments technology had just created; for instance, without modern transportation people would stay close to each other and not need any telephone. (However, he did not address the issue of whether scientific knowledge itself may have provided some satisfaction.) The modern individual, as analyzed by Freud, was therefore constantly ill at ease with modern scientific and technological culture.
By the onset of the Second World War, the British scientific periodical Nature – specifically, Nature's ‘Letters to the editor’ column – had become a major publication venue for scientists who wished to publish short communications about their latest experimental findings. This paper argues that the Nobel Prize-winning physicist Ernest Rutherford was instrumental in establishing this use of the ‘Letters to the editor’ column in the early twentieth century. Rutherford's contributions set Nature apart from its fellow scientific weeklies in Britain and helped construct a defining feature of Nature's influence in the twentieth century. Rutherford's participation in the journal influenced his students and colleagues in the field of radioactivity physics and drew physicists like the German Otto Hahn and the American Bertram Borden Boltwood to submit their work to Nature as well, and Nature came to play a major role in spreading news of the latest research in the science of radioactivity. Rutherford and his colleagues established a pattern of submissions to the ‘Letters to the editor’ that would eventually be adopted by scientists from diverse fields and from laboratories around the world.
Growing interest in studying translation through a sociological lens and the relative lack of attention by translation scholars to the production of scientific translations provide impetus and rationale for this case study. Richard Taylor's editorial work for the Scientific Memoirs periodical is examined, with a particular focus on his conception of the utility of translation in the service of scientific advancement in Britain. The roles of gate-keeper and localizer of scientific material are attributed to Taylor, roles which he exercised through promotion of scientific translation, selection of texts to publish and editorial interventions in translations. The historical case study sheds light on activities of editing, translating and publishing science in mid-nineteenth-century Britain but is also illustrative of research areas where the interests of translation scholars and historians of science may converge. By centring attention on Taylor's editorial role, some of the material and social contingencies of this publishing activity are highlighted, enabling us to gain a deeper appreciation of scientific translation as sociohistorical practice.
There is a widespread assumption that the universe in general, and life in particular, is 'getting more complex with time'. This book brings together a wide range of experts in science, philosophy and theology and unveils their joint effort in exploring this idea. They confront essential problems behind the theory of complexity and the role of life within it: what is complexity? When does it increase, and why? Is the universe evolving towards states of ever greater complexity and diversity? If so, what is the source of this universal enrichment? This book addresses those difficult questions, and offers a unique cross-disciplinary perspective on some of the most profound issues at the heart of science and philosophy. Readers will gain insights in complexity that reach deep into key areas of physics, biology, complexity science, philosophy and religion.