If one is to believe recent popular scientific accounts of developments in physics, biology, neuroscience, and cognitive science, most of the perennial philosophical questions have been wrested from the hands of philosophers by now, only to be resolved (or sometimes dissolved) by contemporary science. To mention but a few examples of issues that science has now allegedly dealt with: the origin and destiny of the universe, the origin of human life, the soul, free will, morality, (...) and religion. My aim in this paper is threefold: (1) to show that these claims stem from the pervasive influence of a scientistic epistemology in popular science writing, (2) to argue that this influence is undesirable because it ultimately undermines not only the important role of popular science reporting in society but also the public’s trust in science, and (3) to offer suggestions on how popular science writing can be improved. (shrink)

This feels like a time of environmental and moral crisis without parallel.... Not only do human beings seem not to believe in anything but, despite exponential advances in information production, we do not appear to know much either. This book is a guide for everyone who feels understandably perplexed. The book considers issues as diverse as: the lure of alternative religions and belief systems; the use of the rhetoric of economics to justify amoral decisionmaking; green politics and genetically-modified crops; new (...) technology's power to preserve the status quo; and the true impetus behind the Human Genome Project. Presenting an explanation of recent findings in science and their relationship with society and politics, the book seeks to give guidance towards responsible political action. Starting from themes developed in the companion volume The Search for Mind, the author attempts to provide intellectual roots for the 'anti-capitalist' or 'anti-globalization' movement and, in particular, treats social protest as a form of knowledge-seeking. The author brings to very topical and controversial concerns some much-needed clarity. Complete with reader-friendly summaries of current thought in the biological, physical, and social sciences, this book is designed primarily for the popular market but will also appeal to those working or studying in these fields. (shrink)

Hermann von Helmholtz was a leading figure of nineteenth-century European intellectual life, remarkable even among the many scientists of the period for the range and depth of his interests. A pioneer of physiology and physics, he was also deeply concerned with the implications of science for philosophy and culture. From the 1850s to the 1890s, Helmholtz delivered more than two dozen popular lectures, seeking to educate the public and to enlighten the leaders of European society and governments (...) about the potential benefits of science and technology to a developing modern society. David Cahan has selected fifteen of these lectures, which reflect the wide range of topics of crucial importance to Helmholtz and his audiences. Among the subjects discussed are the origins of the planetary system, the relation of natural science to science in general, the aims and progress of the physical sciences, the problems of perception, and academic freedom in German universities. This collection also includes Helmholtz's fascinating lectures on the relation of optics to painting and the physiological causes of harmony in music, which provide insight into the relations between science and aesthetics. Science and Culture makes available again Helmholtz's eloquent arguments on the usefulness, benefits, and, intellectual pleasures of understanding the natural world. With Cahan's Introduction to set these essays in their broader context, this collection makes an important contribution to the philosophical and intellectual history of Europe at a time when science played an increasingly significant role in social, economic, and cultural life. (shrink)

Max Weber analyzes the science of the Modern Period. The revolution in physics at the beginning of the 20th century, the creation of quantum mechanics bring to the fore another type of scientific thinking. It is important to note that past knowledge in this case is not refuted, not destroyed, it becomes marginal and enters into communication with its competitor. It is this type of communication with Weber’s philosophy of scientific thinking that helps us to understand its specificity. (...) According to Weber, new knowledge is derived from the previous one, refuting its truth. On this basis, Weber writes that science is different from the art, where the created works retain their significance regardless of the time when they were created. For modern science the predecessor is necessary as another, without which not any communication is possible. Classical science, about which Weber writes, is necessary and continues to function. Satisfying the reemerging needs of society, it can detect previously hidden possibilities and, at the same time, encourage new scientific thinking to strengthen its position.The concept of revolution disappears gradually from the works on science. Instead, sociological concepts such as an innovation center or a technopark that combine simultaneously changes in the logic of knowledge and in the technical equipment of society are becoming popular. Logical and social characteristics of science are combined, the boundary between them becomes less noticeable. If in the era of classics the artificial world surrounding man was built on the basis of the laws of nature, now it is being created on the basis of the laws of thinking. For Weber, this world was silent and dead, this is what classical science testified to. Now the world around us is endowed with artificial intelligence, and we must be able to communicate with it. To understand Weber, it is necessary to establish contact with the world of classics, and not to try to destroy it and to declare it worthless. (shrink)

ABSTRACT In what ways can the study of science and popular culture in the American context contribute to ongoing debates on popularization and popular science? This essay suggests that, for several reasons, attention to the antebellum era offers the most significant opportunity to realize more sophisticated understandings of science in American popular culture. First, it enables us to take advantage of comparative opportunities, both by benefiting from the advanced state of historiography for Victorian (...) class='Hi'>popular science and by engaging with a generation of historiographic innovations by scholars in U.S. history, American studies, literature, and art history. Second, the emergence of popular science in the context of the republican ethos of the antebellum period provides an important vantage point from which to assess the extent to which the general issue of “popular science” and its cognates is historically variable and multiple in terms of the politics of knowledge. Third, the ramifications of the development of popular science for relations between science and the public well into the twentieth century cannot be understood until we gain a more clearly developed sense of the emergent period. (shrink)

In his 1916 review paper on general relativity, Einstein made the often-quoted oracular remark that all physical measurements amount to a determination of coincidences, like the coincidence of a pointer with a mark on a scale. This argument, which was meant to express the requirement of general covariance, immediately gained great resonance. Philosophers such as Schlick found that it expressed the novelty of general relativity, but the mathematician Kretschmann deemed it as trivial and valid in all spacetime theories. With the (...) relevant exception of the physicists of Leiden (Ehrenfest, Lorentz, de Sitter, and Nordström), who were in epistolary contact with Einstein, the motivations behind the point-coincidence remark were not fully understood. Only at the turn of the 1960s did Bergmann (Einstein’s former assistant in Princeton) start to use the term ‘coincidence’ in a way that was much closer to Einstein’s intentions. In the 1980s, Stachel, projecting Bergmann’s analysis onto his historical work on Einstein’s correspondence, was able to show that what he started to call ‘the point-coincidence argument’ was nothing but Einstein’s answer to the infamous ‘hole argument’. The latter has enjoyed enormous popularity in the following decades, reshaping the philosophical debate on spacetime theories. The point-coincidence argument did not receive comparable attention. By reconstructing the history of the argument and its reception, this paper argues that this disparity of treatment is not justified. This paper will also show that the notion that only coincidences are observable in physics marks every critical step of Einstein’s struggle with the meaning of coordinates in physics. (shrink)

This study aims to substantiate the general ancient ‘scientific’ interest of the natural phenomena and popular beliefs Plutarch discusses in his physical problems. Plutarch does not intend to verify these mirabilia in an empirical fashion. He is not so much looking for the ὅτι but more for the διὰ τί in nature. It remains to be seen whether he investigates and ‘believes’ these natural phenomena only for reasons of intellectual exercise, then. They at least receive Plutarch’s benefit of the (...) doubt, which ties in closely with his ‘sceptical’ stance in natural scientific affairs, mediating between unreasoned belief and disbelief of natural mirabilia. The idea that wonder remains immanent in nature is an essential aspect of Plutarch’s general world view and (natural) philosophy. This view is based on a philosophical conviction that nature has a divine teleology. In connection with Platonic ontology and epistemology Plutarch generally accepts, moreover, that no firm knowledge can be attained from natural phenomena, because they are immanently obscure and uncertain, and cannot grant any evident cognition. (shrink)

According to a view widely held among philosophers of science, the notion of cause has no legitimate role to play in mature theories of physics. In this paper I investigate the role of what physicists themselves identify as causal principles in the derivation of dispersion relations. I argue that this case study constitutes a counterexample to the popular view and that causal principles can function as genuine factual constraints. 1. Introduction2. Causality and Dispersion Relations3. Norton's Skepticism4. Conclusion.

Mandelstam’s criticism of the Rayleigh theory of the blue color of the sky (1907) and his polemic with M. Planck (1907–1908) did not become notable events in the history of physics. However, the method of their coverage in the Soviet and in the post-Soviet physics literature is remarkable. Most of Soviet physicists and historians of physics supported Mandelstam's point of view in his criticism of both Raleigh and Planck. The situation changed only at the beginning of the (...) 21st century: in the Russian literature the publications appeared emphasizing that in the Raleigh–Mandelstam and Planck–Mandelstam controversies Mandelstam was not right, Raleigh and Planck were closer to the truth. Which presumptions of this trend can be noted? This was patriotism of the scientific school peculiar to Mandelstam’s graduate students and the former graduate students, the patriotism connected with solidarity which helped Mandelstam’s community to survive in the Soviet totalitarian regime and in the totalitarian organization of science. This was also progressionism which was popular among academics and among men in the street. The phenomenon of common knowledge, mutual knowledge among the members of a scientific community should be taken under consideration. Common knowledge is connected with the non-thematized anonymous inclusion of the ideological terminology into scientific discourse. (shrink)

English popular science was more than a mid-nineteenth century phenomenon, whether defined as practical, utilitarian and comprehensible knowledge, or as a nexus of ¡deas, rhetoric and practice. All these criteria were fulfilled in four Stationers’ Company almanacs for forty years by Henry Andrews, an astronomer, mathematician, astrologer and meteorologist. Andrews employed these as instruments for an extensive campaign in the history of science education devised to acquaint working class readers with the key figures, ideas and methodologies of (...) science. (shrink)

Although much has been written about the vigorous debates over science and religion in the Victorian era, little attention has been paid to their continuing importance in early twentieth-century Britain. Reconciling Science and Religion provides a comprehensive survey of the interplay between British science and religion from the late nineteenth century to World War II. Peter J. Bowler argues that unlike the United States, where a strong fundamentalist opposition to evolutionism developed in the 1920s (most famously expressed (...) in the Scopes "monkey trial" of 1925), in Britain there was a concerted effort to reconcile science and religion. Intellectually conservative scientists championed the reconciliation and were supported by liberal theologians in the Free Churches and the Church of England, especially the Anglican "Modernists." Popular writers such as Julian Huxley and George Bernard Shaw sought to create a non-Christian religion similar in some respects to the Modernist position. Younger scientists and secularists—including Rationalists such as H. G. Wells and the Marxists—tended to oppose these efforts, as did conservative Christians, who saw the liberal position as a betrayal of the true spirit of their religion. With the increased social tensions of the 1930s, as the churches moved toward a neo-orthodoxy unfriendly to natural theology and biologists adopted the "Modern Synthesis" of genetics and evolutionary theory, the proposed reconciliation fell apart. Because the tensions between science and religion—and efforts at reconciling the two—are still very much with us today, Bowler's book will be important for everyone interested in these issues. Contents: Illustrations Preface Introduction: A Legacy of Conflict? Confrontation, Cooperation, or Coexistence? Victorian Background Science and Religion in the New Century Part One: The Sciences and Religion 1. The Religion of Scientists Changing Patterns of Belief Scientists and Christianity Scientists and Theism Method and Meaning Science and Values 2. Scientists against Superstition Science and Rationalism Religion without Revelation Marxists and Other Radicals Science, Religion, and the History of Science 3. Physics and Cosmology Ether and Spirit The New Physics The Earth and the Universe 4. Evolution and the New Natural Theology Science and Creation Evolution and Progress The Role of Lamarckism Darwinism Revived 5. Matter, Life, and Mind The Origin of Life Vitalism and Organicism Mind and Body Psychology and Religion Part Two: The Churches and Science 6. The Churches in the New Century The Challenge of the New The Churches’ Response 7. The New Theology in the Free Churches Precursors of the New Theology Campbell and the New Theology Modernism in the Free Churches 8. Anglican Modernism Modernism and the New Natural Theology Charles F. D’Arcy E. W. Barnes W. R. Inge Charles Raven 9. The Reaction against Modernism Evangelicals against Evolution Liberal Catholicism The Menace of the New Psychology Science and Modern Life Theology in the Thirties Roman Catholicism Part Three: The Wider Debate 10. Science and Secularism Against Idealism Popular Rationalism The Social Reformers 11. Religion’s Defenders From Idealism to Spiritualism Creative and Emergent Evolution Evolution and the Human Spirit Progress through Struggle The Christian Response Epilogue Biographical Appendix Bibliography Index. (shrink)

Popular interest in the progress of physical science has increased very rapidly in the last few years. Perhaps the spectacular ‘mysteries’ of wireless and the intriguing paradoxes of the theory of relativity are the chief causes. For every home now has its Magic Box—a piece of pure physics; there is not a familiar thing in it, not even that sine qua non of all things that ‘work’—a wheel, only mysterious parts called condensers, grid-leaks, inductances, and thermionic valves. (...) And surely, when a Sunday newspaper produces a facsimile page of Einstein’s recent paper in German containing abstruse tensor equations, reverence for the mathematical physicist is nearing its zenith. (shrink)

In 1851 J. B. L. Foucault provided the first mechanical demonstration of the earth's diurnal rotation with a vibrating pendulum. He performed the experiment in the Pantheon in Paris, sparking a pendulum mania that raged across Europe and the United States. The interest in the Foucault pendulum provides an opportunity to examine the popularization of physical science in the antebellum United States. Laypersons attended public demonstrations, performed their own demonstrations, and disputed the principles of the Foucault pendulum. Their participation (...) in physical science made them part of the American scientific community. These lay scientists performed most of the public demonstrations of the experiment. Some researchers performed public demonstrations, but others avoided this opportunity to popularize, deeming it unseemly to participate in pendulum mania. The geographical distribution of interest in the experiment challenges assertions made by historians about the relative level of scientific activity in the New England, mid-Atlantic, southern, and western regions of the United States. (shrink)

This paper explores how the physicist John Tyndall transformed himself from humble surveyor and schoolmaster into an internationally applauded icon of science. Beginning with his appointment as Professor of Natural Philosophy at the Royal Institution in 1853, I show how Tyndall’s worries about his social class and Irish origins, his painstaking attention to his lecturing performance and skilled use of the material and architectural resources of the Royal Institution were vital to his eventual success as a popular expositor (...) and ambassador for science. Secondly I explore the implications of Tyndall’s ‘popularity’ with respect to debates over the meaning and value of scientific ‘popularisation’. In support of recent work challenging diffusionist models of science communication, I show how Tyndall’s interactions with his audiences illustrate the symbiotic relationship between producer and consumer of ‘popular’ science. By examining the views of Tyndall’s critics—notably the ‘North British’ group of physicists—and his defenders and rivals in the domain of popular scientific lecturing, I show that disputes over Tyndall’s authority reflected anxieties about what constituted popular science and the transient boundaries between instruction and entertainment. The term ‘popularisation’ enjoyed many different uses in these debates, not least of all as a rheorical device with which to either exalt or destroy a scientist’s credibility. Author Keywords: John Tyndall; Audiences; Popularisation; Popular; Physics; Royal Institution. (shrink)

The five books of Artemidorus of Ephesus’ Oneirocritica (c. second century CE) constitute the largest collection of divinatory dream-interpretations to survive from Graeco-Roman antiquity. This article examines Artemidorus’ contribution to longstanding medico-philosophical debates over the ontological and epistemic character of such dreams. As with wider Mediterranean traditions concerning premonitory dreams, Greeks and Romans popularly understood them as phenomena with origins exterior to the dreamer (e.g. a visitation of a god). Presocratic and Hippocratic thinkers, however, initiated an effort to bring at (...) least some dream events within the body as interior processes of a physical soul, a bodily turn which ultimately engendered a split in thinking about the possibility and scope of prophetic and diagnostic dreams (e.g. Hippocrates Regimen 4, Aristotle On Prophecy in Dreams, Rufus of Ephesus, and Galen). Here, I examine the way that Artemidorus meant the Oneirocritica to address seriously questions about the origins of dreams and the powers of empirical science in two, related ways. We will see that his defense of oneirocriticism as a techne unfolds along two main axes. First, Artemidorus constructs a necessary veneer of scientific credibility by mobilizing the tropes and organizational strategies characteristic of contemporary technical literature. Secondly, he anchors that authority upon a materialist account of prophetic dreams as “semiotic movements of the soul.” As Price, S. 1986. “The Future of Dreams: From Freud to Artemidorus.” Past & Present 113: 3–36 and Harris-McCoy, D. 2012. Artemidorus’ Oneirocritica: Text, Translation, and Commentary. Oxford: Oxford University Press observed, this explicit commitment to an empirical method of dream-interpretation resembles that of the Hellenistic medical ‘sect’ known as ‘Empiricists,’ who eschewed interest in theoretical etiology in favor of observation, comparison, and compilation of symptoms and outcomes. Pushing beyond similarity, I argue that Artemidorus not only deployed this method to defend empirically grounded accounts of dream-divination (cf. Cicero De div. 1), but endeavored to show that such a scientific method can be used to stabilize and corral productively the potentially infinite number of interpretations any dream-sign might bear without recourse to an underlying, causal theory. (shrink)

By the end of the 1820s, an innovative product was introduced in the northern Italian editorial market: technical and popular periodicals offering “useful knowledge” to a larger audience composed of members of the provincial middle-class, clergymen, and modestly educated craftsmen. By examining their medical content, this paper shows that popularisation did not merely entail disseminating a set of stable, unanimous, and trustworthy medical doctrines; rather, it represented a crucial step in the making of science during a period in (...) which medical theories were still various and contradictory. Moreover, it demonstrates that the environmental and preventative approach to disease, which these medical contributors often employed, did reflect recent developments in chemical or physical knowledge and responded to pedagogical and informative goals; but it mostly served to affirm the social usefulness of medicine and the legitimacy of health professionals' participation in determining how to regulate more general epidemiologic, social, and political issues. (shrink)

Doctoral programs at U.S. universities play a critical role in the development of human resources both in the United States and abroad. This volume reports the results of an extensive study of U.S. research-doctorate programs in five broad fields: physical sciences and mathematics, engineering, social and behavioral sciences, biological sciences, and the humanities. Research-Doctorate Programs in the United States documents changes that have taken place in the size, structure, and quality of doctoral education since the widely used 1982 editions. This (...) update provides selected information on nearly 4,000 doctoral programs in 41 subdisciplines at 274 doctorate-granting institutions. This volume also reports the results of the National Survey of Graduate Faculty, which polled a sample of faculty for their views on the scholarly quality of program faculty and the effectiveness of doctoral programs in preparing research scholars/scientists. This much-anticipated update of such an essential reference will be useful to education administrators, university faculty, and students seeking authoritative information on doctoral programs. (shrink)

Science is popularly understood as being an ideal of impartial algorithmic objectivity that provides us with a realistic description of the world down to the last detail. The essays collected in this book—written by some of the leading experts in the field—challenge this popular image right at its heart, taking as their starting point that science trades not only in truth, but in fiction, too. With case studies that range from physics to economics and to biology, (...) _Fictions in Science_ reveals that fictions are as ubiquitous in scientific narratives and practice as they are in any other human endeavor, including literature and art. Of course scientific activity, most prominently in the formal sciences, employs logically precise algorithmic thinking. However, the key to the predictive and technological success of the empirical sciences might well lie elsewhere—perhaps even in scientists’ extraordinary creative imagination instead. As these essays demonstrate, within the bounds of what is empirically possible, a scientist’s capacity for invention and creative thinking matches that of any writer or artist. (shrink)

This chapter presents the different purposes of observation and experiment in physics using examples that allow us to grasp the historical transformations linked to the development of instrumentation. We cover both the observational and experimental aspects of this discipline, which range from astronomy and astrophysics to nuclear and particle physics, including optics and solid-state physics.

The bulk of this address concerns itself with the extent to which professional scientists were involved in popular science writing in early twentieth-century Britain. Contrary to a widespread assumption, it is argued that a significant proportion of the scientific community engaged in writing the more educational type of popular science. Some high-profile figures acquired enough skill in popular writing to exert considerable influence over the public's perception of science and its significance. The address also (...) shows how publishers actively sought ‘expert’ authors for popular material, but at the same time controlled what was published in accordance with their perception of what would sell. At a more popular level of writing there were many semi-professional authors who, while not active scientists, exploited close contacts with the scientific community. Here there was a strong emphasis on the practical applications of science.The address concludes by suggesting parallels between popular science writing in this period and the present state of popular writing about the history of science. (shrink)

Full of drama, dedication, and humor, this book narrates the author's often frustrating experiences working as an experimental physicist in Cuba after the disintegration of the so-called socialist block. Lacking finance and infrastructure, faced with makeshift equipment, unpredictable supplies, and unreliable IT, Altshuler tells how he and his students overcame numerous challenges to make novel and interesting contributions to several fields of science. Along the way, he explains the science - from studies of ant colonies to superconductivity - (...) either qualitatively or quantitatively, but always at a level fully understandable to an undergraduate student of natural sciences or engineering. An even wider audience, however, may skip the technical sections without missing the essence. With numerous anecdotes, photographs and the author's own delightful cartoons, the book tells a remarkable, and often amusing story of how successful science can be performed against all odds. (shrink)

ABSTRACTAnalysing the contents of magazines published with the stated intention of conveying information about science and technology to the public provides a mechanism for evaluation what counted as ‘popular science’. This article presents numerical surveys of the contents of three magazines published in inter-war Britain and offers an evaluation of the results. The problem of defining relevant topic-categories is addressed, both direct and indirect strategies being employed to ensure that the topics correspond to what the editors and (...) publishers took to be the principal areas of science and technology of interest to their readers. Analysis of the results of the surveys reveals different editorial policies depending on the backgrounds of the publishers and their anticipated readerships. The strong focus of the two most populist magazines on applied science and ‘hobbyist’ topics such as natural history, radio and motoring is noted and contrasted with the very limited coverage of theoretical science. In conclusion, a survey of changes in the contents over the periods of publication is used to identify trends in the coverage of science during this period. (shrink)

ArgumentThis 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 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. (shrink)

Summary The emergence of quantum theory in the early decades of the twentieth century was accompanied by a wide range of popular science books, all of which presented in words, and a few in images, new scientific ideas about the structure of the atom. The work of physicists such as Ernest Rutherford and Niels Bohr, among others, was pivotal to the so-called planetary model of the atom, which, still today, is used in popular accounts and in (...) class='Hi'>science textbooks. In an attempt to add to our knowledge about the popular trajectory of the new atomic physics, this paper examines one book in particular, co-authored by Danish science writer Helge Holst and Dutch physicist and close collaborator of Niels Bohr, Hendrik A. Kramers. Translated from Danish into four European languages, the book not only explained contemporary ideas about the quantum atom, but also discussed unresolved problems. Moreover, the book was quite explicit in identifying the quantum atom with the atom as described by Bohr's theory. We argue that Kramers and Holst's book, along with other ‘atomic books’, was a useful tool for physicists and science popularisers in trying to understand the new quantum physics. (shrink)

This paper is a study of the mental environment of the Newtonian conception of attraction in the case of George Cheyne, M.D. , physician of the early 18th century and author of a number of popular medical works. It traces the growth of his notions of a spiritual attraction between God and his creatures and between the creatures themselves, and the relation of these ideas both to his use of the Newtonian model of short-range attraction, and to his conception (...) of the creatures as reflections of the divine essence. The paper contends that the development of these aspects of Cheyne's thought harmonizes with the changing pattern of his life, and that this harmony is expressed by his general technique of reasoning by analogy between the various spheres of experience. (shrink)

ArgumentThe 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 namedEncyclopédie françaiseedited 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 thePalais de la découvertedesigned 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. (shrink)

Efforts to diffuse useful knowledge on the part of dedicated social reformers, enterprising publishers, and vigorous voluntary associations created new forms of popular literature in the urban centres of Paris and London during the middle decades of the nineteenth century. Popular science periodicals, especially, embodied the aims of the advocates of cheap literature, by providing ‘improving’ information at prices low enough to reach readers who might otherwise purchase potentially dangerous political tracts. Besides promoting social stability, popular (...) science periodicals served to answer the needs of diverse increasingly literate, leisured, and well paid social groups.From their inception, through their evolution over half a century, periodicals in London and Paris mirrored these similar commitments and concerns of their creators. Continuous imitation back and forth across the Channel indicated just how closely English and French editors shared common programmes. Yet despite the similar aspirations of their promoters, popular science periodicals in England and France revealed the outlines of two very different low scientific cultures, shaped by the dissimilar characteristics of their audiences, editors, and high scientific communities. (shrink)

In this largely nontechnical book, eminent physicists and philosophers address the philosophical impact of recent advances in quantum physics. These are shown to shed new light on profound questions about realism, determinism, causality or locality. The participants contribute in the spirit of an open and honest discussion, reminiscent of the time when science and philosophy were inseparable. After the editors' introduction, the next chapter reveals the strangeness of quantum mechanics and the subsequent discussions examine our notion of reality. (...) The spotlight is then turned to the topic of decoherence. Bohm's theory is critically examined in two chapters, and the relational interpretation of quantum mechanics is likewise described and discussed. The penultimate chapter presents a proposal for resolving the measurement problem, and finally the topic of loop quantum gravity is presented by one of its founding fathers, Carlo Rovelli. The original presentations and discussions on which this volume is based took place under the auspices of the French "Académie des Sciences Morales et Politiques". The book will appeal to everybody interested in knowing how our description of the world is impacted by the results of the most powerful and successful theory that physicists have ever built. (shrink)

Throughout his career the geographer, and first reader in the ‘new’ geography at the University of Oxford, Halford Mackinder (1861–1947) described his discipline as a branch of physics. This essay explores this feature of Mackinder's thought and presents the connections between him and the Royal Institution professor of natural philosophy John Tyndall (1820–1893). My reframing of Mackinder's geography demonstrates that the academic professionalization of geography owed as much to the methods and instruments of popular natural philosophy and (...) class='Hi'>physics as it did to theories of Darwinian natural selection. In tracing the parallels between Tyndall and Mackinder, and their shared emphasis upon the technology of the magic lantern and the imagination as tools of scientific investigation and education, the article elucidates their common pedagogical practices. Mackinder's disciplinary vision was expressed in practices of visualization, and in metaphors inspired by physics, to audiences of geographers and geography teachers in the early twentieth century. Together, these features of Mackinder's geography demonstrate his role as a popularizer of science and extend the temporal and spatial resonance of Tyndall's natural philosophy. (shrink)

To put it bluntly, Physicalism is the thesis that everything that exists is physical. Although Physicalism enjoys a great deal of popularity, two widely accepted theses, the physical sciences only tell us about the dispositional properties of the objects they study, and dispositional properties depend upon categorical properties, seem to guarantee that, under some sense of the word, the physical sciences are fated to give us an "incomplete" picture of what exists.In what follows, this challenge to Physicalism will be referred (...) to as "the challenge of categorical properties.". (shrink)

In this highly original book, Russell Blackford discusses the intersection of science fiction and humanity’s moral imagination. With the rise of science and technology in the 19th century, and our continually improving understanding of the cosmos, writers and thinkers soon began to imagine futures greatly different from the present. Science fiction was born out of the realization that future technoscientific advances could dramatically change the world. Along with the developments described in modern science fiction - space (...) societies, conscious machines, and upgraded human bodies, to name but a few - come a new set of ethical challenges and new forms of ethics. Blackford identifies these issues and their reflection in science fiction. His fascinating book will appeal to anyone with an interest in philosophy or science fiction, or in how they interact. (shrink)

Physicalism ? or roughly the view that the stuff that physics talks about is all the stuff there is ? has had a popular press in philosophical circles during the twentieth century. And yet, at the same time, it has become quite fashionable lately to believe that the mind matters in this world after all and that psychology is an autonomous science irreducible to physics. However, if (true, downward) mental causation implies non-reducibility and Physicalism implies the (...) converse, it is hard to see how these two views could be compatible. This paper reviews some classical arguments purportedly showing how the autonomy of the special sciences can be upheld without violating the laws of physics or the principle that physics constitutes a complete and closed system. These arguments are presented in order of increasing strength, indicating how the more popular arguments in fact fall short of establishing anti-reductionism of the intended kind. New arguments are added which claim to demonstrate quite effectively how downward causation is possible compatibly with the reign of physics. The paper begins with a section which distinguishes various kinds of reductionism. (shrink)

Why was there a meltdown at the Fukushima power plant? Why do some people get cancer and not others? Why is global warming happening? Why does one person get depressed in the face of life's vicissitudes while another finds resilience? Questions like these--questions of causality--form the basis of modern scientific inquiry, posing profound intellectual and methodological challenges for researchers in the physical, natural, biomedical, and social sciences. In this groundbreaking book, noted psychiatrist and author Peter Rabins offers a conceptual framework (...) for analyzing daunting questions of causality. Navigating a lively intellectual voyage between the shoals of strict reductionism and relativism, Rabins maps a three-facet model of causality and applies it to a variety of questions in science, medicine, economics, and more. Throughout this book, Rabins situates his argument within relevant scientific contexts, such as quantum mechanics, cybernetics, chaos theory, and epigenetics. A renowned communicator of complex concepts and scientific ideas, Rabins helps readers stretch their minds beyond the realm of popular literary tipping points, blinks, and freakonomic explanations of the world. (shrink)

ArgumentThis paper analyzes the political dimension of Miguel Masriera's science popularization program. In the 1920s, Masriera worked at the Swiss Federal Institute of Technology 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. 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. (shrink)

In modern science, an important feature is a fact that interdisciplinary research is becoming more popular. This is due to the mutual interest of different areas of science to the methods and principles of other areas. The article is devoted to the study of the possibility of dialogue between physical cosmology and transcendental philosophy. Transcendental philosophy provides an interesting look at the problem of subject-object relations in which the object depends on the observer. The possibility of (...) class='Hi'>science using a specific transcendental method in the field of astrophysics has been studied. This possibility is due to the specifics of astronomical objects that exist for the observer as phenomena that do not correspond to reality in time and space. The article emphasizes the conventional concept of realism in modern science. The interdisciplinary dialogue of American and Ukrainian philosophical cosmology with its methods and physical cosmology with its objects promotes mutual development. (shrink)

Historically, American political science has rarely engaged popular culture as a central topic of study, despite the domain’s outsized influence in American community life. This article argues that this marginalization is, in part, the by-product of long-standing disciplinary debates over the inadequate political development of the American public. To develop this argument, the article first surveys the work of early political scientists, such as John Burgess and Woodrow Wilson, to show that their reformist ambitions largely precluded discussion of (...) mundane activities of social life such as popular culture. It then turns to Harold Lasswell, who produced some of the first investigations of popular culture in American political science. Ironically, however, his work – and the work of those who adapted similar ways of speaking about popular culture after him – only reinforced skepticisms concerning the American public. It has thus helped keep the topic on the margins of disciplinary discourse. (shrink)

Why do similar scientific enterprises garner unequal public approbation? High energy physics attracted considerable attention in the late-twentieth-century United States, whereas condensed matter physics – which occupied the greater proportion of US physicists – remained little known to the public, despite its relevance to ubiquitous consumer technologies. This paper supplements existing accounts of this much remarked-upon prestige asymmetry by showing that popular emphasis on the mundane technological offshoots of condensed matter physics and its focus on human-scale (...) phenomena have rendered it more recondite than its better-known sibling field. News reports about high energy physics emphasize intellectual achievement; reporting on condensed matter physics focuses on technology. And whereas frontier-oriented rhetoric of high energy physics communicates ideals of human potential, discoveries that smack of the mundane highlight human limitations and fail to resonate with the widespread aspirational vision of science – a consequence I call “the purloined letter effect.”. (shrink)

ArgumentGerman 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 adispositif, one which is of a particularly cultural nature. (shrink)

Azarya Polikarov was born in Sofia on October 9, 1921. Through the many stages of politics, economy, and culture in Bulgaria, he maintained his rational humanity and scientific curiosity. He has been a splendid teacher and an accomplished critical philosopher exploring the conceptual and historical vicis situdes of physics in modern times and also the science policies that favor or threaten human life in these decades. Equally and easily at home both within the Eastern and Central European countries (...) and within the Western world. Polikarov is known as a collaborating genial colleague, a working scholar. not at all a visiting academic tourist. He understands the philosophy of science from within, in all its developments, from the classical beginnings through the great ages of Galilean, Newtonian. Maxwellian science. to the times of the stunning discoveries and imaginative theories of his beloved Einstein and Bohr of the twentieth century. Moreover, his understanding has come along with a deep knowledge of the scientific topics in themselves. Looking at our Appendix listing his principal publications, we see that Polikarov's public research career, after years of science teaching and popular science writing, began in the fifties in Bulgarian, Russian and German journals. (shrink)

The National Institute of Science and the Arts, founded in 1795, consists of parallel academies, concerned with science, literature, the visual arts and so on. In the nineteenth century it represented a unique government-sponsored intellectual authority and a supreme court judgement, a power which came to be resented by innovators of all kinds. The Académie des sciences held a virtual monopoly in representing French science but soon this came to be challenged. In the period of the Second (...) Empire we find a group of men carving out a new career for themselves as professional popularizers of science, commissioned to write regular articles in newspapers and journals. Although they had begun by simply reporting the meetings of the Académie des sciences, they soon widened their scope and even began criticizing the august Académie. Thus they represented the alternative voice of science, distinct from ‘official science’. These independent writers had their counterpart in painting and literature, both of which were developing radical new approaches in mid-century. When the very traditional Fine Art Academy refused to consider their paintings, painters like Cézanne and Manet found an alternative outlet. Writers too asserted their independence from the Académie française. There were not only many parallels between the independent practitioners in science, painting and literature but also new schools of ‘naturalism’ in painting and literature which looked to science as a model. (shrink)

In modern science, an important feature is a fact that interdisciplinary research is becoming more popular. This is due to the mutual interest of different areas of science to the methods and principles of other areas. The article is devoted to the study of the possibility of dialogue between physical cosmology and transcendental philosophy. Transcendental philosophy provides an interesting look at the problem of subject-object relations in which the object depends on the observer. The possibility of (...) class='Hi'>science using a specific transcendental method in the field of astrophysics has been studied. This possibility is due to the specifics of astronomical objects that exist for the observer as phenomena that do not correspond to reality in time and space. The article emphasizes the conventional concept of realism in modern science. The interdisciplinary dialogue of American and Ukrainian philosophical cosmology with its methods and physical cosmology with its objects promotes mutual development. (shrink)

Fritjof Capra's The Tao of Physics, one of several popularizations paralleling Eastern mysticism and modern physics, is critiqued, demonstrating that Capra gives little attention to the differing philosophies of physics he employs, utilizing whatever interpretation suits his purposes, without prior justification. The same critique is applied and similar conclusions drawn, about some recent attempts at relating theology and physics. In contrast, we propose the possibility of maintaining a cogent relationship between these disciplines by employing theological hypotheses (...) to account for aspects of physics that are free from interpretive difficulties, such as the ability to create mathematical structures with extraordinary predictive success. (shrink)