My goals in this paper are twofold: to outline the refashioning of amateur and professional roles in life science in late Victorian Yorkshire, and to provide a revised historiography of the relationship between amateurs and professionals in this era. Some historical treatments of this relationship assume that amateurs were demoralized by the advances of laboratory science, and so ceased to contribute and were left behind by the autonomous "new biology." Despite this view, I show that many amateurs played a vital (...) part in the construction of a professional academic community in urban Yorkshire, and then continued to collaborate with the laboratory-based biologists. The key to any analysis of the relationship between amateurs and professionals is the great variety of amateur identities and practices in Victorian Yorkshire. The amateur-professional rift fallacy arose because laboratory biologists fashioned an identity in conscious opposition to a particular type of amateur: an ideal that belied an array of cooperative relationships. As naturalists refashioned their roles and identities in light of the changes within academe and without, debates about the practice and place of life science took place as often among amateurs as between professionals and amateurs. (shrink)

This paper examines the vital role played by electron microscopy toward the modern definition of viruses, as formulated in the late 1950s. Before the 1930s viruses could neither be visualized by available technologies nor grown in artificial media. As such they were usually identified by their ability to cause diseases in their hosts and defined in such negative terms as “ultramicroscopic” or invisible infectious agents that could not be cultivated outside living cells. The invention of the electron microscope, with magnification (...) and resolution powers several orders of magnitude better than that of optical instruments, opened up possibilities for biological applications. The hitherto invisible viruses lent themselves especially well to investigation with this new instrument. We first offer a historical consideration of the development of the instrument and, more significantly, advances in techniques for preparing and observing specimens that turned the electron microscope into a routine biological tool. We then describe the ways in which the electron microscopic images, or micrographs, functioned as forms of new knowledge about viruses and resulted in a paradigm shift in the very definition of these entities. Micrographs were not mere illustrations since they did the work for the electron microscopists. Drawing extensively on primary publications, we adduce the role of the new instrument in understanding the so-called eclipse phase in virus multiplication and the unexpected spinoffs of data from electron microscopy in naming and classifying viruses. Thus, we show that electron microscopy functioned not only to provide evidence, but also arguments in facilitating a reordering of the world that it brought into the visual realm. (shrink)

The use of molecules and reactions as evidence, markers and/or traits for evolutionary processes has a history more than a century long. Molecules have been used in studies of intra-specific variation and studies of similarity among species that do not necessarily result in the analysis of phylogenetic relations. Promoters of the use of molecular data have sustained the need for quantification as the main argument to make use of them. Moreover, quantification has allowed intensive statistical analysis, as a condition and (...) a product of increasing automation. All of these analyses are subject to the methodological anxiety characteristic of a community in search of objectivity. It is in this context that scientists compared and evaluated protein and nucleic acid sequence data with other types of molecular data – including immunological, electrophoretic and hybridization data. This paper argues that by looking at long-term historical processes, such as the use of molecular evidence in evolutionary biology, we gain valuable insights into the history of science. In that sense, it accompanies a growing concern among historians for big-pictures of science that incorporate the fruitful historical research on local cases of the last decades. (shrink)

Collecting, comparing, and computing molecular sequences are among the most prevalent practices in contemporary biological research. They represent a specific way of producing knowledge. This paper explores the historical development of these practices, focusing on the work of Margaret O. Dayhoff, Richard V. Eck, and Robert S. Ledley, who produced the first computer-based collection of protein sequences, published in book format in 1965 as the Atlas of Protein Sequence and Structure. While these practices are generally associated with the rise of (...) molecular evolution in the 1960s, this paper shows that they grew out of research agendas from the previous decade, including the biochemical investigation of the relations between the structures and function of proteins and the theoretical attempt to decipher the genetic code. It also shows how computers became essential for the handling and analysis of sequence data. Finally, this paper reflects on the relationships between experimenting and collecting as two distinct "ways of knowing" that were essential for the transformation of the life sciences in the twentieth century. (shrink)

Collecting, comparing, and computing molecular sequences are among the most prevalent practices in contemporary biological research. They represent a specific way of producing knowledge. This paper explores the historical development of these practices, focusing on the work of Margaret O. Dayhoff, Richard V. Eck, and Robert S. Ledley, who produced the first computer-based collection of protein sequences, published in book format in 1965 as the Atlas of Protein Sequence and Structure. While these practices are generally associated with the rise of (...) molecular evolution in the 1960s, this paper shows that they grew out of research agendas from the previous decade, including the biochemical investigation of the relations between the structures and function of proteins and the theoretical attempt to decipher the genetic code. It also shows how computers became essential for the handling and analysis of sequence data. Finally, this paper reflects on the relationships between experimenting and collecting as two distinct “ways of knowing” that were essential for the transformation of the life sciences in the twentieth century. (shrink)

In this article I posit translation as philosophical operation that disrupts commonsense meaning and understanding. By defamiliarising language, translation can arrest thinking about a text in a way that assumes the language is understood. In recent work I have grappled with the phrase 'ways of knowing', which, for linguistic and conceptual reasons, confuses discussions about epistemological diversity. I here expand this inquiry by considering languages in which more than one equivalent exists for the English verb 'to know'. French, for example, (...) has both savoir and connaître , and German has wissen and kennen . This interlinguistic translation thus allows for a reconsideration of the inquiry into the phrase 'ways of knowing': do problems arise with 'ways of knowing-in-the sense-of connaître ', or with 'ways of knowing-in-the-sense-of savoir ', or both? Displacement is, more generally speaking, a method used by philosophers. Shifting the concept or phenomenon under consideration into a different context or discursive register allows one to defamiliarise it and see it in terms of something else. Through translation, whether interlinguistic or interdiscursive, philosophers ask what questions and understandings become possible when we see A in terms of B. (shrink)

In this article I posit translation as philosophical operation that disrupts commonsense meaning and understanding. By defamiliarising language, translation can arrest thinking about a text in a way that assumes the language is understood. In recent work I have grappled with the phrase ‘ways of knowing’, which, for linguistic and conceptual reasons, confuses discussions about epistemological diversity. I here expand this inquiry by considering languages in which more than one equivalent exists for the English verb ‘to know’. French, for example, (...) has both savoir and connaître, and German has wissen and kennen. This interlinguistic translation thus allows for a reconsideration of the inquiry into the phrase ‘ways of knowing’: do problems arise with ‘ways of knowing-in-the sense-of connaître’, or with ‘ways of knowing-in-the-sense-of savoir’, or both? Displacement is, more generally speaking, a method used by philosophers. Shifting the concept or phenomenon under consideration into a different context or discursive register allows one to defamiliarise it and see it in terms of something else. Through translation, whether interlinguistic or interdiscursive, philosophers ask what questions and understandings become possible when we see A in terms of B. (shrink)

ABSTRACT Historians of science, inasmuch as they are concerned with knowledges and practices rather than institutions, have tended of late to focus on case studies of common processes such as experiment and publication. In so doing, they tend to treat science as a single category, with various local instantiations. Or, alternatively, they relate cases to their specific local contexts. In neither approach do the cases or their contexts build easily into broader histories, reconstructing changing knowledge practices across time and space. (...) This essay argues that by systematically deconstructing the practices of science and technology and medicine (STM) into common, recurrent elements, we can gain usefully “configurational” views, not just of particular cases and contexts but of synchronic variety and diachronic changes, both short term and long. To this end, we can begin with the customary actors’ disciplines of early modern knowledge (natural philosophy, natural history, mixed mathematics, and experimental philosophy), which can be understood as elemental “ways of knowing and working,” variously combined and disputed. I argue that these same working knowledges, together with a later mode—synthetic experimentation and systematic invention—may also serve for the analysis of STM from the late eighteenth century to the present. The old divisions continued explicitly and importantly after circa 1800, but they were also “built into” an array of new sciences. This historiographic analysis can help clarify a number of common problems: about the multiplicity of the sciences, the importance of various styles in science, and the relations between science and technology and medicine. It suggests new readings of major changes in STM, including the first and second scientific revolutions and the transformations of biomedicine from the later twentieth century. It offers ways of recasting both microhistories and macrohistories, so reducing the apparent distance between them. And it may thus facilitate both more constructive uses of case studies and more innovative and acceptable longer histories. (shrink)

How may scientific research contribute effectively to industrial development? This question has been debated for many years. However, a recent development in this discussion has come from a number of eminent scientists and others who have become concerned with what has become known as the public understanding of science. According to them, a greater understanding of science by members of the public would result in a higher value being placed on scientific research, which, eventually, would result in both increased social (...) status for scientists and growing funding from government and industry for their work. Thus, in part, concern about the public understanding of science is an indirect way of influencing the outcome of discussions about the science budget. (shrink)

In this essay laboratories are dealt with as symbolic spaces that structure social relationships and ways of knowledge in chemistry. The spatial vicissitudes of the nineteenth‐century research laboratory reflect, and at the same time direct, the way chemical knowledge is being produced, transmitted, and perceived.

During the nineteenth century physiologists and clinicians developed several graphical recording systems for the mechanical registration of heart sounds. However, none of these replaced traditional methods of auscultation. The paper describes criticism of the aural sense as one of the driving forces behind the development of phonocardiography and analyses its variants from a technological and clinical perspective. Against the background of the physiological “method of curves,” the parameters that prevented the implementation of phonocardiography against overwhelming odds are highlighted. Contemporaries denied (...) specific evidence beyond auscultation. Many clinicians also feared that the art of auscultation was being undermined by the new, reproducible mechanical methods. The paper argues that phonocardiography was on the one hand regarded as impractical in clinical settings; on the other hand—and even more important—implicit practices, tacit knowledge and cultural models fostered skepticism against the new method. The argument of “self-evidence”—often connected to medical images, curves, graphs or tables—was not valid for the visualization of cardiac sounds in the opinion of the promoters of acoustic heart sound registration and its individual interpretation. Rather, the acts of subjective hearing and objectively reporting what was heard seemed “self-evident” for pathophysiological characteristics and the development of a diagnosis. Therefore, auscultation and phonocardiography coexisted with different emphases. While auscultation remained the method of choice for a bedside diagnosis, phonocardiography played its role in differential diagnostics or research settings. (shrink)

En el artículo planteamos una categoría para el estudio de controversias científicas, controversias sobre estilos, y proponemos una herramienta de análisis para dar cuenta de ellas. Para ello, hacemos uso de la noción de estilo de razonamiento de Ian Hacking y la metáfora de una historia por estratos. Mostraremos que las controversias sobre estilos tienen la particularidad de persistir en el tiempo, evolucionar e involucrar discusiones y debates en múltiples niveles. Para ilustrar nuestra propuesta, presentamos la controversia cuántica como un (...) ejemplo de una controversia sobre estilos y hacemos uso de la herramienta que aquí sugerimos. (shrink)

Over the last few decades there have been several calls for a “big picture” of the history of science. There is a general need for a concise overview of the rise of modern science, with a clear structure allowing for a rough division into periods. This essay proposes such a scheme, one that is both elementary and comprehensive. It focuses on four machines, which can be seen to have mediated between science and society during successive periods of time: the clock, (...) the balance, the steam engine, and the computer. Following an extended developmental phase, each of these machines came to play a highly visible role in Western societies, both socially and economically. Each of these machines, moreover, was used as a powerful resource for the understanding of both inorganic and organic nature. More specifically, their metaphorical use helped to construe and refine some key concepts that would play a prominent role in such understanding. In each case the key concept would at some point be considered to represent the ultimate building block of reality. Finally, in a refined form, each of these machines would eventually make its entry in scientific research, thereby strengthening the ties between these machines and nature. (shrink)

This article introduces Turing’s idea of a “paper machine” to identify and understand one important mode of clinical research in the modern hospital, how that research worked, and how office technology and industrialized labor shaped and helped drive it. The unusually rich archives of Berlin psychiatry allow detailed reconstruction of the making of the new diagnostic category “hyperkinetic syndrome” in the 1920s. From the generating of data to the processing of information to the visualizing of the nature and course of (...) the new syndrome in the lives of more than sixty patients, this case study shows how clinical research could be based on the apparatus of the clerks’ room (folders, registers, inventories, and the dispatch of documents), office technologies (new filing systems, preprinted forms, and duplicating machines), and the principles and paper practices of the division and rationalization of labor (charts organizing worktime in complex organizations). The result is an important example of clinical research embedded in the broader history of office technology, industrial labor, and the modern hospital. (shrink)

To better understand the work of pre-Darwinian British life researchers in their own right, this paper discusses two different styles of reasoning. On the one hand there was analysis:synthesis, where an organism was disintegrated into its constituent parts and then reintegrated into a whole; on the other hand there was palaetiology, the historicist depiction of the progressive specialization of an organism. This paper shows how each style allowed for development, but showed it as moving in opposite directions. In analysis:synthesis, development (...) proceeded centripetally, through the fusion of parts. In palaetiology, development moved centrifugally, through the ramifying specialization of an initially simple substance. I first examine a community of analytically oriented British life researchers, exemplified by Richard Owen, and certain technical questions they considered important. These involved the neurosciences, embryology, and reproduction and regeneration. The paper then looks at a new generation of British palaetiologists, exemplified by W.B. Carpenter and T.H. Huxley, who succeeded at portraying analysts' questions as irrelevant. The link between styles of reasoning and physical sites is also explored. Analysts favored museums, which facilitated the examination and display of unchanging marine organisms while providing a power base for analysts. I suggest that palaetiologists were helped by vivaria, which included marine aquaria and Wardian cases. As they became popular in the early 1850s, vivaria provided palaetiologists with a different kind of living and changing evidence. Forms of evidence, how they were preserved and examined, and career options all reinforced each other: social and epistemic factors thus merged. (shrink)

To better understand the work of pre-Darwinian British life researchers in their own right, this paper discusses two different styles of reasoning. On the one hand there was analysis:synthesis, where an organism was disintegrated into its constituent parts and then reintegrated into a whole; on the other hand there was palaetiology, the historicist depiction of the progressive specialization of an organism. This paper shows how each style allowed for development, but showed it as moving in opposite directions. In analysis:synthesis, development (...) proceeded centripetally, through the fusion of parts. In palaetiology, development moved centrifugally, through the ramifying specialization of an initially simple substance. I first examine a community of analytically oriented British life researchers, exemplified by Richard Owen, and certain technical questions they considered important. These involved the neurosciences, embryology, and reproduction and regeneration. The paper then looks at a new generation of British palaetiologists, exemplified by W.B. Carpenter and T.H. Huxley, who succeeded at portraying analysts' questions as irrelevant. The link between styles of reasoning and physical sites is also explored. Analysts favored museums, which facilitated the examination and display of unchanging marine organisms while providing a power base for analysts. I suggest that palaetiologists were helped by vivaria, which included marine aquaria and Wardian cases. As they became popular in the early 1850s, vivaria provided palaetiologists with a different kind of living and changing evidence. Forms of evidence, how they were preserved and examined, and career options all reinforced each other: social and epistemic factors thus merged. (shrink)

Regulating technologies, innovations and risks is an activity that, as much as scientific research needs proofs and evidence. It is the site of development of a distinct kind of science, regulatory science. This special issue addresses the question of the standards of knowledge governing how we test, assess and monitor technologies and their effects. This topic is relevant and timely in the light of problematics of regulation of innovation, regulatory failure and capture. Given the enormous decisions and stakes regulatory science (...) commends, it becomes crucial to ask where its standards come from and gain credibility, but also what valuations of technology and appreciations of their risks or benefits do they embed, and who controls them? This paper introduces the four contributions comprising the special issue, and outlines a perspective from which to question the construction of regulatory science or, in the terminology adopted here, the authorization and standardization of regulatory knowledge, particularly the role of networks of scientific experts therein. (shrink)