Iberian repertorios de los tiempos stemmed from Medieval almanacs and calendars. During the sixteenth century significant editorial, conceptual and material changes in repertorios incorporated astronomy, geography, chronology and natural philosophy. From De Li’s Repertorio (1492) to Zamorano’s Cronología (1585), the genre evolved from simple almanacs to more complex cosmological works which circulated throughout the Iberian-American world. This article claims that repertorios are a form of syncretic knowledge rather than “popular science” by relying on the concept of “knowledge in (...) transit”. Elaborating on this perspective, I present how repertorios ended up delivering a worldview from existing materials, a fact so far unnoticed by scholarship. At the same time, repertorios should not be considered an exclusively Iberian phenomenon, but the full scope of their nature as a form of syncretic knowledge should include their networks with migrants, indigenous, mestizos, and criollos across the Atlantic. In this sense, I try to trace the paths connecting productions in the Americas with Iberian repertorios. (shrink)

With over 150 alphabetically arranged entries about key scientists, concepts, discoveries, technological innovations, and learned institutions, the Oxford Guide to Physics and Astronomy traces the history of physics and astronomy from the Renaissance to the present. For students, teachers, historians, scientists, and readers of popular science books such as Galileo's Daughter, this guide deciphers the methods and philosophies of physics and astronomy as well as the historical periods from which they emerged. Meant to serve the lay reader and (...) the professional alike, this book can be turned to for the answer to how scientists learned to measure the speed of light, or consulted for neat, careful summaries of topics as complicated as quantum field theory and as vast as the universe. The entries, each written by a noted scholar and edited by J. L. Heilbron, Professor of History and Vice Chancellor, Emeritus, University of California, Berkeley, reflect the most up-to-date research and discuss the applications of the scientific disciplines to the wider world of religion, law, war, art and literature. No other source on these two branches of science is as informative or as inviting. Thoroughly cross-referenced and accented by dozens of black and white illustrations, the Oxford Guide to Physics and Astronomy is the source to turn to for anyone looking for a quick explanation of alchemy, x-rays and any type of matter or energy in between. (shrink)

Sketched in 1979 by graphic designer Peter Saville, the record sleeve of Joy Division's Unknown Pleasures seemingly popularized one of the most celebrated radio-astronomical images: the ‘stacked plot’ of radio signals from a pulsar. However, the sleeve's designer did not have this promotion in mind. Instead, he deliberately muddled the message it originally conveyed in a typical post-punk act of artistic sabotage. In reconstructing the historical events associated with this subversive effort, this essay explores how, after its adoption as an (...) imaging device utilized in radio astronomy, the stacked plot gave representation to the diplomacy agendas of two distinct groups. The post-punk reworking of the stacked plot exemplified the ambition of this artistic movement to attack the images associated with social conventions and norms by amplifying their ‘semantic noise’, and, in so doing, seeking to negotiate a social space for those sharing these subversive goals. Conversely, radio astronomers used the stacked plot to display the presence of interfering radio transmitters in the frequencies exclusively allocated to astronomical research, thus advocating the removal of this electronic noise in the context of international telecommunication negotiations. The article thus shows how the representation of different types of noise through similar images shaped contrasting ambitions in the separate domains of science diplomacy and everyday diplomacy. (shrink)

In lieu of an abstract, here is a brief excerpt of the content:DOES SCIENCE SAY THAT HUMAN EXISTENCE IS POINTLESS? ROBERT M. AUGROS St. Anselm College Manchester, New Hampshire I N AN ARTICLE published by Marine Biological Laboratory, historian of science William Provine claims that contemporary science imposes on us the view that human existence is meaningless: "Modern science directly implies that the world is organized strictly in accordance with mechanistic principles. There are no purposive principles (...) whatsoever in nature. There are no gods and no designing forces that are rationally detectable.... Modern science directly implies that there are no inherent moral or ethical laws, no absolute guiding principles for human society.... When I die I shall rot and that is the end of me. There is no hope of life everlasting.... Free will as it is traditionally conceived, the freedom to make uncoerced unpredictable choices among alternative possible courses of action, simply does not exist.... There is no ultimate meaning for humans."1 Provine's position can be reduced to five denials: no purposefulness in nature, no God, no ethical principles, no immortality, no free will. Are these denials scientific as Provine contends? No one would maintain that they are scientific in the sense of being proven. No experimental science claims to prove any of them. One occasionally finds one of the five denials, simply asserted without evidence, in the introduction to a textbook or in the popular writings of a scientist, but no scientific proofs are ever offered. Provine himself, in the article proclaiming these denials, neither offers nor refers to any such proofs. He seems to 1 William Provine, "Evolution and The Foundation of Ethics," MBL Science 3 (1988): 27-28. 577 578 ROBERT M. AUGROS concede that there are none when he says "modern science directly implies," not proves. If the five denials are not scientific in the sense of being proven, perhaps they are nevertheless indispensable as background assumptions to make the scientific method work properly. Must the working scientist adopt Provine's five denials to make discoveries or to explain phenomena? The founders of modern science did not think so, and did not assume the five denials in their work. On the contrary, they integrated into their scientific work the existence of God, purpose in the universe, free choice, the immortality of the human soul, and the reality of ethics. For instance, Copernicus argued that the cosmos must be harmonious because' it is made by the "best and most orderly Workman of all."2 By explicitly following the principle that nature is purposeful, William Harvey discovered the circulation of blood.3 Seventeenth-century chemist Robert Boyle wrote: "When I consider the rational soul as an immaterial and immortal being, that bears the image of its divine maker, being endowed with a capacious intellect, and a will, that no creature can force: I am by these considerations disposed to think the soul of man a nobler and more valuable being, than the whole corporeal world."4 It was the passion of Kepler's life to investigate the deeper harmonies of the heavens, for, in his words, the "fuller knowledge of God through nature."5 "Galileo never thought of denying an ultimately religious answer to the problems of the universe," writes E. A. Burtt.6 Galileo repudiated Aristotle's physics but praised and extolled his ethics. Isaac Newton con2 Nicolaus Copernicus, On the Revolutions ofthe HemJenly Spheres, trans. Charles Glenn Wallis, vol. 16 of Great Books of the Western World (Chicago: Encyclopedia Britannica, 1952), 508. 3 William Harvey, "An Anatomical Disquisition on the Motion of the Heart and Blood in Animals," vol. 26 of Great Books of the Western World, ed. Philip Goetz (Chicago: Encyclopedia Britannica, 1990), 285. 4 Robert Boyle, The Works of the Honourable Robert Boyle, ed. Thomas Birch (London, 1672) vol. 4, 19. sJoannis Kepleri Astronomi Opera Omnia, ed. Ch. Frisch (Frankfurt and Erlangen, 1858), vol. 8, 688. 6 Edwin Arthur Burtt, The Metaphysical Foundations of Modern Physical Science (London: Routledge & Kegan Paul, 1950), 93. IS HUMAN EXISTENCE POINTLESS? 579 sidered his Principia to be one great proof for the existence of God whom he describes in his famous General Scholium as living, intelligent, perfect, eternal, omniscient, and omnipresent.7 If the founding fathers of modern... (shrink)

ArgumentThis paper analyses a process of co-construction of knowledge and its multiple forms of communication in a country of the European periphery in the early twentieth century. It focuses on Lieutenant Manuel Soares de Melo e Simas, a politically engaged Portuguese astronomer, who moved from amateur to professional during the political transition from the monarchy to the republic. Melo e Simas paralleled his professional career in continuous activity of communicating science to the public in the context of republicanism in (...) a double way, by responding to the agenda of republicanism and by playing an active role in shaping it. He aimed at educating lay audiences in the various ways of astronomy, and he reached out to as many people as possible by exploring a multitude of communication channels, from lectures to articles in newspapers and journals. Voiced often within newly created republican institutions, the praxis and the ideas of Melo e Simas helped to mold the new republican scientific ethos. By going beyond mere emphasis on scientism and positivism, usually taken to be the defining characteristics of the new republican ethos, this paper argues that science and the specificities of its multiple forms of communication were central to the way Melo e Simas shaped the republican ideology. Furthermore, popularization of science was used to legitimize the status of professional scientists at the same time that it helped reinforce their institutional setting, still to be negotiated in the forthcoming decades through a complex process which deserves further historical analysis. (shrink)

SummaryJohn Herschel was the leading British natural philosopher of the nineteenth century, widely known and regarded for his work in philosophy, optics and chemistry as well as his important research and popular publications on astronomy. To date, however, there exists no extended treatment of his astronomical career. This paper, part of a larger study exploring Herschel's contributions to astronomy, examines his work in the context of positional astronomy, the dominant form of astronomical practice throughout his lifetime. Herschel, who did (...) not himself practice positional astronomy and who was known for his non-meridional observations of specific stellar objects, was nonetheless a strong advocate for positional astronomy—but for very different reasons than the terrestrial applications to which it was most often put. For Herschel, the star catalogues of positional astronomy were the necessary observational foundation upon which information about the stars as physical objects could be constructed. Positional astronomy practiced in the great national observatories was not about navigation or timekeeping; it was a way to standardize stellar observations and make them useful data for constructing theories of the stars themselves. For Herschel, the seeds of the new astronomy emerged from the practices of the old. (shrink)

Summary Although the Copernican hypothesis is popularized in Japan by Shiba Kōkan's books published between 1793 and 1805, the whole of the conceptions of the Occidental astronomy remains unknown at that time to most of the Japanese. Through the publication of Ensei kanshō zusetsu in 1823, Yoshio Nankō does achieve posthumously the project designed two years earlier by his young disciple, Kusano Yōjun, to spread this knowledge widely among the society. The book is a great and unprecedented success. Well known (...) nowadays for its appendix (Chidō wakumon) and the influence that its content, while claiming the mobility of the Earth, did exert on the propagation of the heliocentrism in Japan until the very end of the Edo period, the book also provides as we think an unexpected and completely new platform for classical science, being the emissary of certain concepts invented by Shizuki Tadao from his relentless studies of Newtonian mechanics. Once we briefly recount Yoshio's career and discuss the sources and the morphology of his work, we give some arguments towards it. (shrink)

In Science before Socrates, Daniel W. Graham argues against the belief that the Presocratic philosophers did not produce any empirical science and that the first major Greek science, astronomy, did not develop until at least the time of Plato. Instead, Graham proposes that the advances made by Presocratic philosophers in the study of astronomy deserve to be considered as scientific contributions.

The History and Philosophy of Science: A Reader brings together seminal texts from antiquity to the end of the nineteenth century and makes them accessible in one volume for the first time. With readings from Aristotle, Aquinas, Copernicus, Galileo, Descartes, Newton, Lavoisier, Linnaeus, Darwin, Faraday, and Maxwell, it analyses and discusses major classical, medieval and modern texts and figures from the natural sciences. Grouped by topic to clarify the development of methods and disciplines and the unification of theories, each (...) section includes an introduction, suggestions for further reading and end-of-section discussion questions, allowing students to develop the skills needed to: § read, interpret, and critically engage with central problems and ideas from the history and philosophy of science § understand and evaluate scientific material found in a wide variety of professional and popular settings § appreciate the social and cultural context in which scientific ideas emerge § identify the roles that mathematics plays in scientific inquiry Featuring primary sources in all the core scientific fields - astronomy, physics, chemistry, and the life sciences - The History and Philosophy of Science: A Reader is ideal for students looking to better understand the origins of natural science and the questions asked throughout its history. By taking a thematic approach to introduce influential assumptions, methods and answers, this reader illustrates the implications of an impressive range of values and ideas across the history and philosophy of Western science. (shrink)

In the last twenty years or so there has been a renewed interest in Pliny the Elder, once an immensely popular author whose reputation began to suffer after Renaissance scholars challenged the accuracy of his work. The recent interest has been interdisciplinary, producing contributions from classical scholars, historians, scientists, and technologists, sometimes working as a team. What “interdisciplinary” has meant in practice is a collaboration rather than a blend of disciplines. What you see in Pliny is what your training (...) makes obvious.John Healy's book is a robust defense, indeed promulgation, of the thesis that Pliny practiced “science.” This thesis implies not only that science was a recognizable, and recognized, activity in antiquity but that “science” can tell us more clearly than any other rubric what Pliny was up to. Science can certainly tell us about Pliny's natural world, because it was very much like our own, but it does not tell us anything about Pliny's enterprise. We may feel a sense of intellectual satisfaction in knowing the formula for the acetic acid in vinegar and the chemical equation that represents its attack on calcareous rocks, but Pliny's story is about something else.In this study Healy, a distinguished classical scholar, has taken aboard a lot of science. He provides us with valuable information about the suitability of the Latin language for the development of technical terms and about its borrowings from Greek and other languages. After Healy the classicist considers Pliny as a writer and describes his life, sources, mode of work, language, and style, Healy the scientist addresses the topic of ancient science. Chapter 10 lays down the program, taken from a modern classification of fields of research. Healy takes the ten subdivisions of the “natural sciences, technologies and engineering” as a structure for his investigation into Pliny and for the format of the book. He thus looks at Pliny's thought in relation to chemistry, physics, earth sciences, engineering , applied sciences, biology, and agriculture. A footnote tells us that he has omitted any reference to medicine, pharmacology, and astronomy—a pity, as these subjects, with their own identities and practitioners, come closer to science than most of what either Pliny or Healy discusses. In the style of a modern scientific textbook, Healy's text is broken down into numerous subsections to accommodate modern categories. The chapters on minerals and gems are alphabetical lists.The combination of classical learning and scientific knowledge looks formidable and is certainly unusual. But the book is more an exercise in applying science to classical studies than an example of science illuminating history. The confidence his scientific material gives Healy leads to a certain historical insensitivity. I declare an interest here, for he badly misreads what I have argued about “science” in antiquity. His rigid use of modern—our—categories inevitably leads to instances in which he finds Pliny confusing them or failing to separate them. Our categories take on a life of their own in this exposition: the section on “electricity,” for example, is largely independent of Pliny. Its subsection 12.2.1c is on piezoelectricity, of which “neither Pliny, nor other ancient authorities, appear to have been aware.” Gravity has to be there, because it is part of modern physics, but Pliny does not mention it.There is no reason why classical scholars and scientists should not be interested in Pliny and find each other's disciplines enlightening. But the claim that Pliny was, as Healy says, making “contributions” to our science is a historical one and relates to Pliny's purposes. No amount of modern mathematical or chemical formulas will tell us what was in Pliny's mind, and he was fairly clear, after all, on his purposes in writing the Natural History. It's back to “Science in Antiquity?” again. (shrink)

Proclus, head of the Philosophy School at Athens for fifty years, was one of the leading philosophical figures in Late Antiquity. Lucas Siorvanes here introduces Proclus to English-language readers, discussing his metaphysics and theory of knowledge and focusing in particular on his Neo-Platonism. Proclus lived in the turbulent fifth century A.D., a time of struggles among Christians, Jews, and pagans, the invasion of Attila the Hun, the fall of the Western Roman Empire, and the rise of the Eastern Roman Empire (...) in Byzantium. While Late Antiquity has been regarded as a time of superstition and forbiddingly complex philosophies, recent scholarship has shown it to be full of cultural and intellectual vigor. During Proclus's tenure as head of the Philosophy School, he systematized Neo-Platonism as the summit of ancient Greek thought, brought it to its peak of influence, and became responsible for the form in which it was transmitted to the Byzantine, Western European, and Islamic civilizations. Siorvanes's extensive original research presents Proclus as much more than just a metaphysician. He surveys all of Proclus's philosophical interests—including religion, physics, astronomy, mathematics, and poetry—revealing the philosopher's central concern with the problems of being and knowledge and relating the ideas of Proclus to those of such other major thinkers as Plato, Aristotle, and Ptolemy. To help the newcomer, Siorvanes supplies more than 200 quotations from Proclus's works. He also traces the impact of Proclus's Neo-Platonism across cultures, religions, and centuries, in such diverse areas as Christian and Islamic theologies, Renaissance art, Kepler's astronomy, Romantic poetry, Emerson's thought, modern philosophy and science, and current popular phrases. (shrink)

Science is a defining feature of the modern world, and popular science is where most of us make sense of that fact. Understanding Popular Science provides a framework to help understand the development of popular science and current debates about it. In a lively and accessible style, Peter Broks shows how popular science has been invented, redefined and fought over. From early-nineteenth century radical science to twenty-first century government initiatives, he (...) examines popular science as an arena where the authority of science and the authority of the state are legitimized and challenged. The book includes clear accounts of the public perception of scientists, visions of the future, fears of an anti-science movement and concerns about scientific literacy. The final chapter proposes a new model for understanding the interaction between lay and expert knowledge. This book is essential reading in cultural studies, science studies, history of science and science communication. (shrink)

The view that Islamicate science went into decline while European science was getting started is still commonly held among historians of science and almost universal in general history and popular presentations. Different versions of the decline thesis make it start in the 11 th century with the work of Ibn al-Haytham and al-Ghaz ā l ī ; in the 13 th century with the sack of Baghdad, or at latest with the beginning of the “Scientific Revolution” (...) in Europe. However, it is now increasingly apparent that Islamicate science was healthy well into the period of the Ottomans, Safavids and Mughals. There are many reasons for the continued attraction of the decline theses. In addition to the inaccessibility of sources, these include mistaking the nature of credentialing in Islamicate science, and mistaking the nature of the sources in which original science was appearing. In this paper, I will sketch a more appropriate social structure for understanding Islamicate science by describing the institutional structures for training scientists and awarding credentials, and the practices of recording and transmitting research in writing. Taking the Safavid scholar Bahā ʾ al-D ī n al- ʿ Ā mil ī as an example, I will suggest that these structures supported an active research community well into the early modern period, further undermining the decline thesis. (shrink)

Introduction One of popular science’s primary functions is to make what would otherwise be inaccessible, specialist knowledge accessible to the lay reader. But popular science puts its imagined reader in something of a dilemma, for one does not have to look very far to find bitter argument among science writers; argument that takes place beyond the limits of the scientific community: witness the ill-tempered exchanges between Mary Midgley and Richard Dawkins in the journal Philosophy in (...) the l... (shrink)

This introduction to physical science combines a rigorous discussion of scientific principles with sufficient historical background and philosophic interpretation to add a new dimension of interest to the accounts given in more conventional textbooks. It brings out the twofold character of physical science as an expanding body of verifiable knowledge and as an organized human activity whose goals and values are major factors in the revolutionary changes sweeping over the world today.Professor Kemble insists that to understand science (...) one must understand not only what the scientists have discovered, but how the discoveries were made, why the growth of scientific knowledge had to begin slowly, and what it has done to our habits of thought. He has written neither a history of science nor an introduction to the philosophy of science but an introduction to scientific concepts and principles that supplies as much of their historical and philosophical context as limits of space permit.The volume takes up in turn the story of the astronomy of ancient Greece, the Copernican revolution, the idea of the expanding sidereal universe, the rise of Newton's classical mechanics with its many astronomical applications, the concept of energy and its relation to heat, to steam engines, and to thermodynamics. The volume ends with an account of the successes and failures of classical kinetic-molecular theory of heat. (shrink)

ABSTRACT This essay suggests that we should understand the varieties of “popular science” as part of a larger phenomenon: the changing set of processes, practices, and actors that generate and transform public knowledge across time, space, and cultures. With such a reconceptualization we can both de‐essentialize and historicize the idea of “popularization,” free it from normative notions, and move beyond existing imbalances in scholarship. The history of public knowledge might thus find a central place in many fundamental narratives (...) of the modern world. More specifically, the essay proposes that we pay more attention to forms of knowledge outside the realm of “science,” embrace the richness, traffic, and transfer of public knowledge on a transnational scale as well as in comparative perspective, and rethink conventional forms of periodization. (shrink)

The sublime evokes our awe, our terror, and our wonder. Applied first in ancient Greece to the heights of literary expression, in the 18th-century the sublime was extended to nature and to the sciences, enterprises that viewed the natural world as a manifestation of God's goodness, power, and wisdom. In The Scientific Sublime, Alan Gross reveals the modern-day sublime in popular science. He shows how the great popular scientists of our time--Richard Feynman, Stephen Hawking, Steven Weinberg, Brian (...) Greene, Lisa Randall, Rachel Carson, Stephen Jay Gould, Steven Pinker, Richard Dawkins, and E. O. Wilson--evoke the sublime in response to fundamental questions: How did the universe begin? How did life? How did language? These authors maintain a tradition initiated by Joseph Addison, Edmund Burke, Immanuel Kant, and Adam Smith, towering 18th-century figures who adapted the literary sublime first to nature, then to science--though with one crucial difference: religion has been replaced wholly by science. In a final chapter, Gross explores science's attack on religion, an assault that attempts to sweep permanently under the rug two questions science cannot answer: What is the meaning of life? What is the meaning of the good life? (shrink)

If one is allowed to speak of progress in historical research, one may note with satisfaction the growing sophistication with which the relationship between science and religion has been examined in recent years. The "warfare" model, the "separation" paradigm, and the "partnership" ideal have been subjected to critical scrutiny and the glaring light of historical evidence. As John Hedley Brooke has so astutely noted, "Serious scholarship in the history of science has revealed so extraordinarily rich and complex a (...) relationship between science and religion in the past that general theses are difficult to sustain. Unfortunately, this more nuanced approach has not been as evident in studies of Islam and science. Though there has been some serious scholarship on the relation between science and religion in Islam, such work has made barely a dent in either the general accounts or the general perceptions of that relationship. These latter continue to be characterized by reductionism, essentialism, apologetics, and barely masked agendas. (shrink)

Within the timespan of two years, two books have been published on the Presocratics as scientists. In 2011 appeared Carlo Rovelli’s The First Scientist. Anaximander and His Legacy, (Yardley: Westholme), and in 2013 Daniel Graham’s Science before Socrates. Whereas Rovelli, whose main field of study is quantum gravity, argues that Anaximander was the first scientist, Graham maintains that Anaximander should not count as a scientist. Empirical science started with Anaxagoras, who used his assumption that solar eclipses occur when (...) the moon blocks its light (“antiphraxis”) to measure the size of the sun on the occasion of a solar eclipse, and to a lesser extent with Parmenides, who recognized that the moon receives its .. (shrink)

Popular science writing has received increasing interest, especially in its relation to professional science. I extend the current scholarly focus from the nineteenth to the twentieth century by providing a microhistory of the early popular writings of evolutionary biologist John Maynard Smith. Linking them to the state of evolutionary biology as a professional science as well as Maynard Smith’s own professional standing, I examine the interplay between author, text and audiences. In particular, I focus on (...) Maynard Smith’s book The Theory of Evolution and show how he used it to both promote neo-Darwinism and advocate the utility of mathematics in biology. Following in the footsteps of Charles Darwin and David Lack, Maynard Smith was a science communicator blurring the lines between genres and audiences while contributing to ongoing discussions within and on the profession of evolutionary biology around the Darwin-Wallace centenary. (shrink)

This essay examines the physicist Ernst Mach’s popular work. Like many other scientists in late nineteenth-century Central Europe, he viewed the popular genre as a means not only of edifying the lay public but of communicating arguments to other specialists. In many cases, he used his popularizations to draw his colleagues’ attention to the biological and evolutionary features of scientific reasoning, although his own understanding of those features changed in the 1880s and early 1890s. Notably, he came to (...) believe that human beings instinctively read substances into nature. Several years after adopting this new perspective on substance, he incorporated it into a series of popular works that were intended to outline his views on thermodynamics in general and to weigh in on the controversy over “energetics” that erupted at the 1895 Versammlung Deutscher Naturforscher und Ärtze. (shrink)

Strategies of persuasion tapped in popular science writing are discussed under the assumption that effective science education and communication can offer antidotes to the revolt against expertise. It is argued that popular science can weaken the experience of science even while attempting to enhance it. Topics discussed include gimmickry, efforts at science-art fusions, and other contemporary mythologizing moves as well as the relationship between science and the humanities generally. Steven Weinberg’s modern classic (...) The First Three Minutes is explored as an example of successful popular science communication. (shrink)

This article describes the experiences of a former astronomer who is making the transition to astronomy education research as an international graduate student in the United States. The article describes the author’s encounters with education research, its methodologies, and his changing research interests as he progresses through the graduate program. It also describes his experiences with the busy life of a graduate student in American academia and his experiences as an international student.

The purpose of this paper is to highlight an aspect of Elisabeth’s intellectual life that has received little scholarly attention so far, namely Elisabeth’s involvement with the sciences of her day. Firstly, this paper provides a survey of Elisabeth’s interest in and engagement with various scientific disciplines, such as mathematics, medicine, natural philosophy, and microscopy, drawing on her letter exchange with Descartes and several other intellectuals as well as additional documents, such as dedications of scientific works to Elisabeth. Secondly, this (...) paper investigates Elisabeth’s involvement with one particular scientific discipline, namely astronomy. Analyzing Elisabeth’s letter exchange with Andreas Colvius and Constantijn Huygens and additional letters and testimonies, I show that Elisabeth played an active part in at least three current debates in astronomy, namely concerning the discoveries of the satellites of Jupiter, the emerging maps of the moon, and the invention of the new telescopes. Based on the evidence provided in this paper, it is argued that Elisabeth’s intellectual biography should be broadened. It is not sufficient to perceive her only as a critic of Descartes’ philosophy, as this characterization does not accommodate her scientific commitments, but rather as a multitalented intellectual. (shrink)

In the 1990s, the Dutch astronomical community had to choose its next big telescope project. The starting point of their discussions was not a plan in search of support, but a scientific community in search of a plan. Their discussion demonstrates how big science projects are an integral part of the moral and institutional economy of modern astronomy. Large telescopes are unique but not exceptional: big science has become part of “normal science,” both scientifically and institutionally. In (...) retrospect, the discussions anaylized in this paper discussions concern the earliest phase of three major astronomical instruments: the Atacama Large Millimeter Array, the Square Kilometer Array, and the Low Frequency Array. Interestingly, the Dutch astronomers focused on what they called “strategic” arguments, explicitly excluding arguments regarding scientific merit. I demonstrate how this should be understood in the context of the moral economy of the community. This analysis, based on rich archive material and background interviews with key actors, adds to our understanding of big science or “megascience” in the post–Cold War era. (shrink)

The role genetic inheritance plays in the way human beings look and behave is a question about the biology of human sexual reproduction, one that scientists connected with the Human Genome Project dashed to answer before the close of the twentieth century. This is also a question about politics, and, it turns out, poetry, because, as the example of Lucretius shows, poetry is an ancient tool for the popularization of science. "Popularization" is a good word for successful efforts to (...) communicate elite science to non-scientists in non-technical languages and media. According to prominent sociobiologist E. O. Wilson, "sexual dominance is a human universal." He meant, of course, that men dominate women. Like sociobiology, genetic science is freighted with politics, including gender politics. Scientists have gender perspectives that may color what they "see" in nature. As the late Susan Okin Miller suggested in an unpublished paper tracing the detrimental impact of Aristotle's teleology on Western thought, scientists accustomed to thinking that men naturally dominate women might interpret genetic discoveries accordingly. Biologists have good, scientific reasons to fight the effects of bias. One must be critical of how scientists and popularizers of science, like "Genome" author Matt Ridley, frame truth and theory. Ridley's "battle of the sexes" metaphor and others have a doubtful place in serious explanations of science. (shrink)

This work has been selected by scholars as being culturally important, and is part of the knowledge base of civilization as we know it. This work was reproduced from the original artifact, and remains as true to the original work as possible. Therefore, you will see the original copyright references, library stamps (as most of these works have been housed in our most important libraries around the world), and other notations in the work.This work is in the public domain in (...) the United States of America, and possibly other nations. Within the United States, you may freely copy and distribute this work, as no entity (individual or corporate) has a copyright on the body of the work.As a reproduction of a historical artifact, this work may contain missing or blurred pages, poor pictures, errant marks, etc. Scholars believe, and we concur, that this work is important enough to be preserved, reproduced, and made generally available to the public. We appreciate your support of the preservation process, and thank you for being an important part of keeping this knowledge alive and relevant. (shrink)

The burgeoning of new technologies is increasingly affecting people’s lives. One new technology that is heatedly discussed is artificial intelligence in education. To allow students to understand the impact of emerging technologies on people’s future lives from a young age, some popular science activities are being progressively introduced into elementary school curricula. Popular science activities are informal education programs and practices of universal education. However, two issues need to be discussed in the implementation of these activities. (...) First, because these informal curricula are usually short in duration, the question of whether they only serve to generate motivation or actually enhance learning outcomes requires examination. Second, the role of teacher support in popular science activities and its impact on students’ learning results need to be further investigated. To this end, this study aims to explore the effectiveness of popular AI science activities in informal curricula on students’ AI achievement and the interrelationship between students’ learning outcomes in popular AI science activities with and without teacher support. A 6-h-long AI popular science activity was conducted with 22 fifth- and sixth-grade students in elementary school. This study was conducted using a one-group pretest and posttest design, and the data collection tools included AI achievement pre- and posttests and an artifact scoring rubric. The results showed that with regard to learning outcomes, popular science activities were helpful for cognitive enhancement of AI concepts, but more time was needed for skills to improve. Additionally, this study found that students’ learning performance was different with and without teacher support. Activities with teacher support can enhance students’ learning outcomes, but students become accustomed to relying on their teachers. In contrast, activities without teacher support seem to be more effective in fostering students’ independent computational thinking and problem-solving abilities. (shrink)

This study reviews the Chinese Buddhist approach to astronomy and calendars during the first millennium CE. I demonstrate that although Indian astronomical and calendrical concepts were often translated into Chinese Buddhist literature, few of these conventions were ever actually implemented in China. I also demonstrate that the Chinese sangha relied upon secular and/or Indian astronomical materials in translation. I highlight the eighth-century monk Yixing as a unique example of a Chinese Buddhist monk who also acted as a court astronomer, but (...) I argue that despite his identity as a monk, his career as an astronomer was actually separate from his activities within Buddhism. Finally, with additional reference to Amoghavajra, I argue that Buddhism as an institution in China did not facilitate developments in astronomy or calendrical science, but rather it took a deferential attitude toward these fields. (shrink)

To base oneself upon a scientific philosophy is often of great importance in framing and solving major problems in natural science, including the science of the universe at large. Moreover, one's approach to the solution of specific problems arising in natural science depends to an extent upon one's philosophy. This situation points the way to the elimination of certain preconceived notions and erroneous convictions of researchers, that is, those due to an inadequate knowledge of philosophy or to (...) the influence of a weak philosophy. (shrink)

This richly illustrated book discusses the ways in which astronomy expanded after 1945 from a modest discipline to a robust and modern science. It begins with an introduction to the state of astronomy in 1945 before recounting how in the following years, initial observations were made in hitherto unexplored ranges of wavelengths, such as X-radiation, infrared radiation and radio waves. These led to the serendipitous discovery of more than a dozen new phenomena, including quasars and neutron stars, that each (...) triggered a new area of research. The book goes on to discuss how after 1985, the further, systematic exploration of the earlier discoveries led to long-term planning and the construction of new, large telescopes on Earth and in Space. Key scientific highlights described in the text are the detection of exoplanets, the unexpected discovery of the accelerated expansion of the Universe, a generally accepted model for the large-scale properties of the Universe and the ΛCDM theory that explains how the galaxies and stars of the present Universe were formed from minute irregularities in the homogenous gas that filled the early Universe. All these major scientific achievements came at a price, namely the need to introduce two new phenomena that are as yet unexplained by physics: inflation and dark energy. Probably the deepest unsolved question has to be: Why did all of this start with a Big Bang? (shrink)

Astronomy on Trial systematically and convincingly argues against every aspect of the theory behind the idea of the "Big Bang." Using a readable style that incorporates the laws of physics, Roy C. Martin exposes the impossibilities that have been so commonly manipulated to support the Big Bang theory. He carefully explains the absurdities that have come to represent modern day cosmology and high-energy physics that have arisen from the group-think phenomenon. Martin reveals this group-think as the tendency of scientists to (...) fit the astronomical observational data that flow into context within the standard theories already established by the community of cosmologists. The author's witty, point-by-point exposition of the impossibility of the Big Bang not only provides insights into this one situation, but reveals a troubling trend of a lack of skepticism in scientific research in general that calls for a reevaluation of conclusions in all other fields of science. (shrink)

In one of the most disputed passages of Greek literature Plato in the Republic, 7. 528e–530c prescribes astronomy as the fourth study in the education of the Guardians. But what sort of astronomy? According to one school of thought it is a purely speculative study of bodies in motion having no relation to the celestial objects that we see. While this interpretation has rejoiced the hearts of Plato's detractors, who regard him as an obstacle to the progress of science, (...) it has dismayed his admirers. Another school of thought holds that what Plato meant was that astronomers must get to know the real motions of the heavenly bodies as opposed to their apparent motions as seen by us on earth. The opposed interpretations may be set out in the following representative citations from Sir Thomas Heath and John Burnet. (shrink)

This article focuses on debates on philosophical knowledge, mathematics, and the empirical sciences by analyzing the positions on cosmological and astronomical knowledge, around 1800, of three German authors: Herder, Schelling, and Hegel. I show the mutual interdependence of Schelling’s and Hegel’s Naturphilosophie and Herder’s Ideen, and I then demonstrate that the latter’s position during the last years of his life was a reaction to Schelling’s and Hegel’s speculative philosophy. While Herder seems to ignore the works of the Naturphilosophen in his (...) journal Adrastea, in fact he participated in a very lively debate that included Schelling’s Weltseele and Hegel’s Dissertatio de Orbitis Planetarum. (shrink)

We as Classical scholars need to (re)learn what most of our nineteenth and early twentieth century colleagues used to know about e. g. the phases of the moon. If we do not we may totally miss essential points of some texts, or fail to understand the nature of problems pointed out by former generations, as in the case of the Homeric Hymn to Hermes. We also ought to go further than our predecessors: knowing some basic facts about the heavenly bodies, (...) e. g. about the visibility of the planet Venus, can make us see some Greek poems in a (to us, at least) new light. (shrink)

Relying on an analysis of the case of gravitational lensing, Hacking argues for a "modest antirealism" in astronomy. It is shown here that neither his scientific arguments nor his philosophical doctrines imply an antirealist conclusion. An alternative, realistic interpretation of gravitational lensing, and of the nature and history of astronomy more generally, is suggested.

In a somewhat polemical article on ‘Solstices, Equinoxes, and the Presocratics’ D. R. Dicks has recently challenged the usual view that the Presocratics in general, and the Milesians in particular, made significant contributions to the development of scientific astronomy in Greece. According to Dicks, mathematical astronomy begins with the work of Meton and Euctemon about 430 B.C. What passes for astronomy in the earlier period ‘was still in the pre-scientific stage’ of ‘rough-and-ready observations, unsystematically recorded and imperfectly understood, of practical (...) men’ whose chief concern was to fix the seasons for ploughing, seed-time, sailing voyages and religious festivals. Ionian speculation, says Dicks, took very little note of such observation: ‘some of its wilder flights of fancy might have been avoided, if it had taken more’. In this account of the rise of Greek astronomy, the natural philosophers have no part to play. Their theories represent a speculative enterprise without a scientific future, a philosophic sideline with no impact on the development of observational science from Hesiod to Meton or the development of mathematical astronomy from Meton to Ptolemy.I believe that such a dichotomy between early philosophy and early science in Greece is misguided in principle, and that it seriously distorts our picture of the initial phases of each discipline. It also imposes a considerable strain upon our credulity. Take the case of Anaxagoras who, according to Plato and Theophrastus, had given a causal explanation of eclipses of the moon a generation before Meton. (shrink)

At some time around 200 A.D., the Stoic philosopher and teacher Cleomedes delivered a set of lectures on elementary astronomy as part of a complete introduction to Stoicism for his students. The result was _The Heavens, _the only work by a professional Stoic teacher to survive intact from the first two centuries A.D., and a rare example of the interaction between science and philosophy in late antiquity. This volume contains a clear and idiomatic English translation—the first ever—of _The Heavens, (...) _along with an informative introduction, detailed notes, and technical diagrams. This important work will now be accessible to specialists in both ancient philosophy and science and to readers interested in the history of astronomy and cosmology but with no knowledge of ancient Greek. (shrink)

The most discussed and mysterious column within the Babylonian astronomy is columnΦ. It is closely connected to the lunar velocity and to the duration of the Saros. This paper presents new ideas for the development and interpretation of columnΦ. It combines the excellent Goal-Year method with old ideas and practices from the “schematic astronomy”. Inspired by the old “TU11” rule for prediction of times of lunar eclipses, it proposes that columnΦ, in a similar way, used the sum of the Lunar (...) Four to predict times of lunar eclipses as well as the duration of one, 6, and 12 months by means of what usually is called “R–S” schemes. It also explains fully the structure and development of such schemes, a fact that strongly supports the new interpretation of columnΦ. (shrink)

This Afterword to the special section on Science Popularization in Francoist Spain draws general conclusions from its case studies. Most overarchingly, the different contributions show that popularization existed under this dictatorial regime, and hence does not require a Habermasian liberal-democratic public sphere. Four more specific lessons are also drawn, each shedding new light on either science popularization or dictatorial regimes. (1) Popularization has not only been a way to promote science, it has also been used to prop (...) up dictatorial regimes by associating them with things scientific. (2) Totalitarian regimes are much less monolithic than they appear to be at the surface; they often harbor internal weaknesses and conflicts. (3) The study of science popularization in dictatorships can help open our eyes for comparable forms of propaganda in democracies. (4) Totalitarianism is best understood not as a universal phenomenon, but in its specific historical situatedness. Studying science popularization under Franco brings out the specific traits of this regime: the legacy of the Civil War, Spanish regionalism, and the international dependencies of the Francoist state. (shrink)

This article explores the question: is The X-Files dangerous to science fiction (SF) and science? Certainly it is one of the most prominent series that, despite being frequently appended with the SF television label, seems to challenge and sometimes eschew basic conceptualizations of the genre. Furthermore, at the height of its success the series was criticized by scientists such as Richard Dawkins for disseminating and popularizing anti-rational and potentially anti-scientific perspectives. On these grounds, the answer to our question (...) appears to be yes. However, detailed analysis of the series reveals quite a different picture. Firstly, even attempts to distance the series from SF effectively encapsulate reasons for that very labelling. These specifically revolve around the use of the phrase ‘extreme possibilities’. Secondly, far from presenting a simplistic juxtaposition of belief and reason, the series instead involves a dialogic exchange that helps to articulate the role of scientific inquiry in approaching the unknown. (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)

The astronomer Ole Rømer emphasized the mechanical nature of the practice of astronomy and this paper attempts to unravel what Rømer meant by the close association between mechanics and astronomy. The point of departure is Rømer's work with Tycho Brahe's observations and his stay at the Royal Academy of the Sciences in Paris. Analyses of Rømer's letters and treatises show that he not only focused on direct presentations of observations and instruments, but demanded an independence of his results that went (...) beyond the rhetoric of first-hand knowledge. Rømer wanted his observations and instruments to demonstrate the physical theories themselves, rather than asking for theories to be accepted on his authority. His invention of the meridian circle with its facility for cross-checking measurements is seen in connection with this drive to make what is observed ‘deserve credit in its own right rather than because of the observer.’. (shrink)