In The Empire of Chance, historians of science Gigerenzer et al. argue that statistical thinking has been “second to no other area of scientific endeavor” in its influence on “modern life and thought” (Gigerenzer et al. 1989, xiv-xv). This article describes how quantitative descriptions of risk associated with industrialization and technological change became part of the mentality of ordinary Americans. It explains why Americans began counting accidents, tells what kinds of accidents they counted and how they counted them, and shows how statistical representations of risk were used to justify prescriptions for public policy and individual behavior. On this frontier of the empire of chance, safety experts and self-styled “practical statisticians” were the principal colonizers. Distant from the centers of academic statistical science, they compromised rigorous scientific standards of methodology and accurate prediction in order to make convincing arguments outside their circles of expertise. To convey their point of view to audiences who were not literate in the field of statistics, they created a public language that conveyed statistical ideas through metaphors, graphic representations, and other rhetorical devices. They also engaged non-experts in collecting and analyzing data and, by the 1920s, even used quantitative self-measurement as a device to convince members of the public to alter their own risk-taking behaviors.

This issue of Science in Context presents a collection of historical studies on various aspects of science and its practice as developed in Latin-American contexts. Relatively few scholars working in the history of science, and even in the more general field of “science studies,” have devoted their research to this field. Likewise, relatively little research has been done by scholars of Latin American studies on the cultural, political, and social impact of science, a field that is usually considered to be one of the central, defining aspects of modern, Western civilization.

The articles collected in this volume of Science in Context have as their common theme the history of early science. The reader will note the great diversity of the subjects dealt with in this volume, and also some strong commonalities. In our view, this tension between diversity and commonality is central to the historiography of early science, and may represent an important value of this study. To see this, let us first consider the papers in sequence.

Argument

The purpose of this volume is to investigate a number of selected examples of contact zones between the sciences and literature. We will be dealing with prominent cases of how science and literature encounter and interact with each other and profit by this recourse to their corresponding other, yielding aspects of self-reflection and self-representation. The volume will not attempt to address the question whether the so-called “two cultures” can be brought closer together or superseded by a third (Lepenies 1988, passim). We will be dealing neither with science and literature in an autobiographical or “life-world” sense, nor with popular scientific texts with quasi-literary claims, such as Stephen Hawking's theory of time, nor, in the parallel universe of popular fiction, with science fiction.

Between February of 1797 and July of 1798, Francisco Barrera y Domingo, a Spanish surgeon, wrote an extensive treatise on slave medicine in the Caribbean. Entitled Reflexiones Historico Fisico Naturales Medico Quirurgicas, this 894-page manuscript accounts for eighteen years of its author's professional practice in the region. It provides a clear picture of daily life in the sugar plantations as seen through the eyes of a modest surgeon, thus presenting us with an opportunity to explore the ideological and intellectual universe of this “invisible” category of colonial practitioners. Despite its importance, Barrera's Reflexiones remains almost unknown. Only a handful of scholars have even acknowledged the existence of the volume and no systematic analysis of its content is available in English.

Argument

If visual inspection of corpses was central to the development of anatomy in modern Europe, one may ask which of the senses was important for the emergence of the predominant currents of scholarly medical knowledge and practice in third- and second-century B.C.E. China? This article argues that it was tactile perception prompted by a tactile exploration of living bodies. The evidence, derived from a close reading of the Mawangdui medical manuscripts, the 105th chapter of the Records of the Historian (Shi ji), and selected passages from the Huang Di's Inner Canon (Huang Di nei jing), points to three important trends: first, the tactile exploration of the extremities led to a rich vocabulary of compound words for pain (tong) as localized in specific body parts; second, the tactile exploration of the mai (vessels/pulses) gave rise to an even richer vocabulary on qualities of touch in pulse diagnostics; and third, the tactile exploration of the abdomen led to the assessment of the quality of the internal viscera (zang) with words that generally were used for describing the tactile quality of skin and flesh. This finding may appear surprising in the light of later developments during the dynastic history of Chinese medicine where tactile exploration of abdomen and extremities would appear unseemly. The author suggests that extensive tactile explorations of the body were possible before Confucius' teachings became a predominant aspect of state ideology.

Argument

In his Philosophia practica universalis (1738–39), Christian Wolff proposes a “mathematical” theory of moral action that includes his statements on the Aesopian fable. As a sort of moral example, Wolff claims, the fable is an appropriate means to influence human conduct because it conveys general truths to intuition. This didactic concept is modeled on the geometrical figure: Just as students intuit mathematical demonstrations by looking at figures on a blackboard, one can learn how to execute complex actions by listening to a fable. Wolff's “scientific” fable theory met with an ambivalent reception. Lessing, who in his fable treatises re-translates Wolff's suggestions into the conceptual framework of poetics, interprets the geometric model as a stylistic ideal. The famous passage on Homer's successive descriptions in Lessing's Laokoon can be seen as another attempt to apply the representational model of geometry to literature. Herder, reading Wolff in a way that might be called deconstructive, replaces Wolff's geometric theory of poetry by a poetic anthropology of geometry.

The context of discovery and collection of Siwalik fossils had far less to do with science than with the ability to effect “translations” that helped bring together a wide range of social worlds, from the Doab Canal engineers working at the foot of the Hills, surgeon-botanists at the Saharanpur Botanic Gardens, other colonial officials, the native “Hindoo” diggers and collectors, to all of whom the Siwalik Hills was a “boundary object,” a common factor that bound their lives together. In this colonial scientific collecting episode pertaining to the discovery of a new field of research, cooperation between different participants is achieved not by using methods of standardization but through an emphasis on greater heterogeneity, both in terms of the “allies” enrolled and fossils collected. Heterogeneity becomes a factor of strength rather than a weakness that deters the practice of science. This essay employs sociological reflection to examine the context of discovery, collection, and justification of a significant group of fossils in India in the 1830s–40s.

The linguistic relativist thesis maintains that there is no neutral ground for different scientific traditions with different theoretic frameworks to communicate rationally, due to the fact that linguistic structure crucially decides the way people think about reality. For quite a long time, historical studies of scientific exchange between East and West have been guided by this thesis. The challenge to this thesis comes from recent studies by Peter Galison, who argues that scientists from different research traditions can communicate rationally in a way similar to the trading exchanges between two countries, in which a local coordination can be reached even if there is a global disagreement about the corresponding word usage in two natural languages. In this paper, I try to show that the concept of trading zone communication provides an interesting and useful theoretical tool to examine how, in the sixteenth, seventeenth, and eighteenth centuries, Chinese scientists communicated with and learned Western knowledge from Jesuit scientists by building local coordination among them. In the first section I introduce the basic ideas of Galison's trading zone theory. In the second section I study the metaphysical, ontological, and epistemological differences between Chinese science and Western science. If the linguistic relativist thesis is taken for granted, these differences are likely to lead many historical studies on Jesuit science in China to reach the relativist conclusion. The third section deals with some of the basic concepts of the trading zone theory to explain how local rational communication among Chinese and Jesuit scientists was built and developed. In the last section I argue that Galison's trading zone theory can help us understand how Chinese scientists learned new knowledge from the Jesuits, especially astronomical and mathematical knowledge, despite the global differences between these two research traditions.

Argument

This essay seeks to identify the cultural significance of Goethe's scientific writings. He reformulates, in the light of his own concrete experience, “crucial turning-points” (Hauptmomente) in the history of science – key ideas, the historical understanding of which is vital to present understanding – thus situating his own scientific work at the bi-polar center of the Western scientific tradition, conceived as the dramatic interplay over centuries of two opposing modes of thought. For in his experimentation he recaptures the glimpse of living form gained in aesthetic perception (Anschauung), from which such inherited theoretical positions are ultimately derived. At each stage of this process, imagination, in its aesthetic modality, is essential, for it alone reveals the world as it truly is. The literary quality of his writings on nature, as on culture, reveals Goethe's stylistic achievement in devising a medium in which the insights gained in contemplation may be so transmitted as to make a similar, imaginative, appeal to his reader – re-enacting the abstract-concrete equilibrium characterizing all aesthetic experience. Matching his style to the subtle, delicate, connectedness of Nature, Goethe recreates the delights of participating in natural creativity. His Janus-faced, scientific-literary, style illustrates “binary synthesis,” the principle that unites Goethe's science with his art.

Beauty is the normal state.

(Ralph Waldo Emerson, The Conduct of Life)

There can be no such thing as an eclectic philosophy, but there can be eclectic philosophers. But an eclectic is anyone who, from whatever exists and is happening round about, appropriates the things he or she finds congenial to her or his nature; and this context validly includes all that can be called culture and progress in a theoretical and practical sense. It follows that two eclectic philosophers could turn into the greatest opponents if they are antagonistic to one another, each picking out whatever suits him or her in every traditional system of philosophy.

(Goethe, Wilhelm Meister's Journeyman Years)

Argument

This paper is detective work. I aim to show that the brilliant Pythagorean mathematician Archytas of Tarentum was the founder of ancient Greek mathematical optics. The evidence is indirect. (1) A fragment of Aristotle preserved in Iamblichus is one of two doxographical notices to mention Pythagorean work in optics. (2) Apuleius credits Archytas with a theory of visual rays which saves the principle that the angle of reflection is equal to the angle of incidence. I argue that the source from which Apuleius got this information was the Catoptrics of Archimedes, the genuineness of which I defend against Knorr's hypothesis that it is the Euclidean Catoptrics, which had been misattributed to Archimedes. (3) The omission of optics from the mathematical curriculum in Plato's Republic, and the Timaeus' wholly physical account of mirror-images, can be explained as polemical, for it is well attested that optics was practiced in the Academy. The reason Plato does not mention optics is that he objected to Archytas using mathematics to understand the physical world rather than to transcend it.

This paper argues that eighteenth-century Portuguese scientific policies promoted the inclusion of its main colony, Brazil, in the Enlightenment environment. This was accomplished by innovative initiatives, such as voyages to explore the colonial territory. Natural history activities, especially in mining, remained at the center of this political project and relied on co-opting groups of Portuguese in America. Based on the life of João da Silva Feijó, this article outlines the relevant connections between Feijó's scientific activities and the first Brazilian national expedition in the 1850s, which led to discussion about developing the Brazilian nation. This analysis is aimed toward the growing consensus in historiography of the sciences that scientific activities practiced outside European centers gave rise to complex interactions involving the processes of mondialization of sciences and the construction of a local scientific context.

The creation of algebraic topology required “all the energy and the temperament of Emmy Noether” according to topologists Paul Alexandroff and Heinz Hopf. Alexandroff stressed Noether's radical pro-Russian politics, which her colleagues found in “poor taste”; yet he found “a bright trait of character.” She joined the Independent Social Democrats (USPD) in 1919. They were tiny in Göttingen until that year when their vote soared as they called for a dictatorship of the proletariat. The Minister of the Army and many Göttingen students called them Bolshevist terrorists. Noether's colleague Richard Courant criticized USPD radicalism. Her colleague Hermann Weyl downplayed her radicalism and that view remains influential but the evidence favors Alexandroff. Weyl was ambivalent in parallel ways about her mathematics and her politics. He deeply admired her yet he found her abstractness and her politics excessive and even dangerous.

Argument

Cultivated by a number of writers and studied by psychologists, the phenomenon of déjà vu is an invention of the nineteenth century and is part of a broader exploration of how the mind experiences memory and time. Thus this typically benign mental aberration provides an entry-point into the mechanisms that preside over the regulation of the flow of consciousness. The theories of the mind developed recently by neuroscientists help us understand, meanwhile, why investigations into this mental “event” necessarily invoke concepts of representation and narrative. In fact, our increasingly sophisticated models for processes of memory and perception depend on literary representations. This article relies on the paramnesiac writings of Gérard de Nerval, seen through the lens of Proust's analysis, to argue that a consideration of the aesthetic and representational features of déjà-vu can bring us closer to solving the epistemological challenges we face in studying this phenomenon.

For Gregory T. Polletta

Os Sertões (Rebellion in the Backlands), by the engineer Euclides da Cunha, is one of the most important books in Brazilian literature, with more than 50 local editions and translations in at least nine languages. Published in 1902 after four years of writing, it is a book about nationality in Brazil that sparked a debate regarding the subject of national consciousness and the connection between a nation's physical landscape, its people, and its culture. The book draws from a wide spectrum of knowledge that synthesizes science and art as the pinnacle of human thought. Cunha was a man of great culture and learning and in this work his professional activities and scientific writings merge to celebrate Brazilian culture in different realms of knowledge. The author worked as an engineer and had connections with the scientific community and the world of natural science. His explicit references to naturalists, travelers, geologists, and botanists reflect the historical moment of scientific knowledge in Brazil in the late nineteenth and early twentieth century, and no less than that, Cunha's personal connections with the local scientific community.

Argument

Aristotle's colleague Theophrastus wrote a number of short works on natural historical subjects. They have proved something of a challenge to modern critics. In his Metaphysics, Theophrastus had warned of the dangers in expecting consistent evidence of purpose-directed activity throughout all levels of the natural world. Taken too far, he argued, this expectation carries with it a risk of destroying the prestige of explanation altogether. In the short works – such as On Stones – he appears to be taking his own warning very seriously. So much so that there is little obvious sign to the modern eye of any philosophically inspired taxonomical principle behind the organization of the material presented. Yet taxonomy (of a sort) there is. If Plato had advocated a hard-line teleology in which all natural phenomena worthy of mention and study could be understood in terms of their emulation of the Forms, both Aristotle and Theophrastus allowed several species of teleological impulse. One type drives an organism to be the best it possibly can be, but another drives it to serve the interests of man in the best way it can. The two impulses occasionally collide, but at the “lower” levels of creation where purpose-directed activity pure and simple is often less than evident, we can often find organisms and even inanimate matter serving the interest of human users. This species of anthropocentric teleology provides a justification – and a potential taxonomical framework – for much of Theophrastus' investigation into the more intractable reaches of the natural world, and offers a glimpse of the developing mind-set of the Lyceum in the generations after Aristotle.

Argument

When Copernicus pointed out that the apparent movement of the sun was in fact the effect of the rotation of the earth, he explained his view by referring to a passage in Virgil's Aeneid. Thus he established the link between science and literature. This topic recurred frequently in both science and literature whenever the question of the relativity of motion arose. In this article, I will focus above all on two authors who took up this question: Ernst Mach and Hugo von Hofmannsthal. Moreover I will try to show the different roles of scientific and literary prose in the works of Mach and in Hofmannsthal's Das Glück am Weg (1893).

Argument

How well does Aristotle's abstract definition of nature in the Physics cope with some significant agricultural facts? Are its implications in tension with the workings of artificial teleology? How Aristotle might categorize domesticated plants is problematic: they are neither obviously natural nor obviously artificial. That artificial things generally retain an intrinsic source of change does not help us to settle the status of “living quasi-artefacts.” A survey of Theophrastus reveals that many agricultural techniques go against nature, rather than collaborating with it; and, moving from the practical to the theoretical, the Mechanica might suggest a scientific program at odds with the Aristotelian tradition of passive observation. Reflection on the Historia Animalium exposes difficulties in specifying natural and artificial environments which exacerbate the puzzle, and reinforce the rationale for Aristotelians to adopt an active stance when investigating nature. The Aristotelian olive remains mysterious.

Whereas historiography of the debates on “early man in America” isolates Florentino Ameghino's ideas on human evolution from his paleontological and geological work, this paper presents Ameghino's ideas on human ancestors in regard to the controversies over the origin and dispersion of mammals. Therefore, this paper analyzes the constitution of paleontology in Argentina at the end of nineteenth century by describing, firstly, the Ameghino brothers' organization of research. By tackling this aspect I want also to discuss the place of science in late nineteenth-century Argentina. Secondly, I will sketch “Ameghino's ideas” about Patagonia as a center of distribution of mammals, the age of Patagonian strata, and the South American origin of humankind. The Ameghino brothers' logistics of fieldwork created not only the means for finding a remarkable fossil fauna but also a trap that undermined their scientific credibility. Therefore, I will focus on the problem of fieldwork in “distant” places and of scientific wandering in Patagonia. In the polemics presented here, language, transportation systems, visual representations, and technical devices were crucial elements for the creation of paleontological objects.

In this article it is argued that a continuity exists between Karl Schwarzschild's work on foundational problems on the borderline of physics and astronomy and his later occupation with general relativity. Based on an analysis of Schwarzschild's published works as well as formerly neglected unpublished notes it is shown that, long before the rise of general relativity, Schwarzschild was concerned with problems that later became associated with that theory. In particular he considered non-Euclidean cosmologies, linked the phenomena of gravitation and inertia to the problem of the precession of Mercury's perihelion, and entertained the possibility of inertial frames rotating with respect to one another. It is argued that these earlier considerations, which reflect his interdisciplinary outlook on the foundations of the exact sciences, enabled Schwarzschild to recognize the significance of general relativity for astronomy, astrophysics, and cosmology earlier than most of his collegues and shaped his contributions to this theory.