RESUMO Este artigo discute a divisão do trabalho científico entre pesquisadores seniores e juniores em um centro de pesquisa brasileiro de genética humana e médica. Partindo do debate contemporâneo sobre a progressiva imbricação entre ciência e tecnologia - com progressiva fusão entre ambas, que evoca noções como a de tecnociência - é possível verificar, na subárea específica, velocidades crescentes na produção de dados, que pressionam os pesquisadores de maneiras distintas, seja pelo crescente custo das inovações tecnológicas, seja pela necessidade de (...) métodos mais complexos para a análise. Nesse contexto, analiso questões relativas à especialização do trabalho científico, à separação entre concepção e execução, e às transformações correlatas na formação de novos pesquisadores. Parte-se do pressuposto teórico-metodológico de que a atividade científica não pode ser tratada de forma homogênea, existindo configurações distintas de acordo com o espaço disciplinar, a organização institucional e a tradição científica local, entendida enquanto empreendimento historicamente enraizado e social e culturalmente contingente. ABSTRACT The article discusses the division of scientific labour among senior and junior researchers in a Brazilian research center for human and medical genetics. Starting with the contemporary debate on the progressive intertwining of science and technology - with progressive fusion of both, evoking notions such as technoscience - it is possible to verify, in this specific subarea, rising speed in data production that pressure scientists in different manners: through the rising cost of technological innovations and through the necessity for more complex methods of analysis. In this context I analyze issues concerning the specialization of scientific work, the separation between conception and execution as well as correlate changes in the formation of new researchers. The theoretical-methodological pressupposition is that scientific activity cannot be treated in a homogeneous way, and that there exist distinct configurations according to the disciplinary space, the institucional organization and local scientific tradition, understood as a historically rooted and socially and culturally contingent undertaking. (shrink)

During the early twentieth century, the Bermuda Biological Station for Research functioned as a multipurpose scientific site. Jointly founded by New York University, Harvard University, and the Bermuda Natural History Society, the BBSR created opportunities for a mostly US-based set of practitioners to study animal biology in the field. I argue that mixed gender field stations like the BBSR supported professional advancement in science, while also operating as important places for women and men to experiment with the social and cultural (...) work of identity formation, courtship and marriage, and social critique. Between 1903 and 1930, the BBSR functioned as a laboratory of domesticity, a temporary scientific household in British Bermuda where women and men interacted with established colonial ideologies about science, sex difference, and racial hierarchy in their public and private accounts of doing biology and socializing in the field. Viewing field stations as generative of multiple forms of labor offers a corrective to narratives within the history of biology, in which scientific practices are considered to be the principal forms of output produced by practitioners in the field. Understanding how women and men at the BBSR engaged with the politics of gender and race from the periphery of U.S. networks of biology suggests that we might view field stations as shaping not only academic science but also domestic life and fields as disparate as fiction and the law. (shrink)

Seit Beginn der frühen Neuzeit ist das naturwissenschaftliche Verfahren maßgeblich durch ein neues Konzept geprägt: das Konzept des experimentellen, gestalterischen Eingriffs in die Natur. Es geht nun nicht mehr darum, eine Geschichte der "freien und ungebundenen Natur" (Bacon) zu erzählen, die in ihrem eigenen Lauf belassen und als vollkommene Bildung betrachtet wird. Es geht vielmehr darum, der "gebundenen und bezwungenen Natur" (Bacon) vermittels der experimentellen Tätigkeit des Menschen die Geheimnisse zu entreißen. Diese technisch-praktische Konzeption grenzt sich explizit von den klassischen (...) kontemplativen Wissenschaftsvorstellungen der Antike ab. Wie es Kant paradigmatisch in Bezug auf Bacon formuliert hat, ist diese "Revolution der Denkart" maßgeblich durch ein gewandeltes Verständnis des Verhältnisses des Menschen zur Natur geprägt. Der Mensch als Experimentator hat für Kant nicht mehr die "Qualität eines Schülers", der sich passiv von der Natur belehren läßt und an ihrem "Leitbande" (Kant) gegängelt wird. Seine neu gewonnene Autorität verleiht ihm vielmehr den Status eines Richters, der nun die Natur nötigen kann, auf gestellte Fragen zu antworten. Die Laborforschung der modernen Naturwissenschaft ist von den Formen der alten Naturwissenschaft so weit entfernt, daß sie den Vorwurf auf sich zog, sie untersuche Artekakte, aber nicht Natur. Die grundlegenden Theorien über Natur können in der Regel nur unter den künstlichen Bedingungen des Labors aufgestellt werden. Daraus darf aber nicht geschlossen werden, die anhand von Laborphänomenen aufgestellten und getesteten Theorien handelten nicht von der Natur außerhalb der Labore. Aber ihrer exakten und detaillierten Anwendung auf Prozesse außerhalb der Labore stehen eine Fülle von Schwierigkeiten entgegen. Insofern markiert das Labor sehr wohl eine Grenze exakter Naturforschung, die für den Umgang der wissenschaftlich-technischen Zivilisation mit der Natur wichtige Konsequenzen hat. Inhalt: Kristian Köchy / Gregor Schiemann: Natur im Labor Lothar Schäfer: Die Erscheinung der Natur unter Laborbedingungen Holm Tetens: Das Labor als Grenze der exakten Naturforschung Christoph Rehmann-Sutter: Genes in Labs - Concepts of Development and the Standard Environment Kristian Köchy: Lebewesen im Labor. Das Experiment in der Biologie Jutta Weber: Mannigfaltige Techno-Naturen. Von epistemischen Modellsystemen und situierten Maschinen Thomas Sören Hoffmann: Gezeigte versus sich zeigende Natur. Eine Skizze im Blick auf das Verhältnis von Labor und Natur Klaus Michael Meyer-Abich: Laborforschung im Erkenntnishandeln der Experimentiergesellschaft. Eine holistisch-pragmatische Perspektive für die Wissenschaftstheorie. (shrink)

This book explores how and why some people and practices are made invisible in science, featuring 25 case studies and commentaries that explore how invisibility can bolster or undermine credibility, how race, gender, class, and nation frame who can see what, how invisibility empowers and marginalizes, and the epistemic ramifications of concealment.

La tensión entre fidelidad a la tradición e innovación presente en el pensamiento plotiniano se manifiesta de modo patente en su propuesta metafísica. La ontología expuesta en las Enéadas, en efecto, es un claro ejemplo de la labor exegética mediante la cual Plotino toma las concepciones metafísicas platónico-pitagóricas precedentes y las sintetiza infundiendo nueva vitalidad en ideas antiguas. Para llevar a cabo su exégesis utiliza, incluso, conceptos aristotélicos que integra de un modo peculiar a su pensamiento platonizante. En el (...) presente trabajo, pues, nos proponemos esclarecer el procedimiento interpretativo que Plotino lleva a cabo en la formulación de su doctrina de lo Uno y de la relación entre esta hipóstasis y la Inteligencia. En nuestro análisis examinamos las nociones metafísicas que nuestro filósofo toma como punto de partida y brindamos una interpretación de la transformación que opera sobre ellas para arribar al sistema que dio origen a una nueva corriente de pensamiento platónico. The tension between innovation and fidelity to tradition present in the thought of Plotinus manifests itself clearly in his metaphysical conception. The ontology put forward in the Enneads, in fact, is a fine example of the exegetical work by which our thinker takes the preceding platonic-pythagorean metaphysics and synthesizes it, bringing new vitality into ancient ideas. To accomplish his exegesis he even employs Aristotelian concepts incorporating them in a peculiar way to his Platonizing thought. In the present paper, hence, we intend to elucidate the interpretive procedure that Plotinus carries out to arrive at his conceptions of the One and of the relationship between this hypostasis and Intelligence. In our analysis, we examine the metaphysical notions that our philosopher takes as starting points and we offer an interpretation of the transformation he operates upon them to reach the system that gave birth to a new current of Platonic thought. (shrink)

Seit Beginn der frühen Neuzeit ist das naturwissenschaftliche Verfahren maßgeblich durch ein neues Konzept geprägt: das Konzept des experimentellen, gestalterischen Eingriffs in die Natur. Es geht nun nicht mehr darum, eine Geschichte der "freien und ungebundenen Natur" (Bacon) zu erzählen, die in ihrem eigenen Lauf belassen und als vollkommene Bildung betrachtet wird. Es geht vielmehr darum, der "gebundenen und bezwungenen Natur" (Bacon) vermittels der experimentellen Tätigkeit des Menschen die Geheimnisse zu entreißen. Diese technisch-praktische Konzeption grenzt sich explizit von den klassischen (...) kontemplativen Wissenschaftsvorstellungen der Antike ab. Wie es Kant paradigmatisch in Bezug auf Bacon formuliert hat, ist diese "Revolution der Denkart" maßgeblich durch ein gewandeltes Verständnis des Verhältnisses des Menschen zur Natur geprägt. Der Mensch als Experimentator hat für Kant nicht mehr die "Qualität eines Schülers", der sich passiv von der Natur belehren läßt und an ihrem "Leitbande" (Kant) gegängelt wird. Seine neu gewonnene Autorität verleiht ihm vielmehr den Status eines Richters, der nun die Natur nötigen kann, auf gestellte Fragen zu antworten. Die Laborforschung der modernen Naturwissenschaft ist von den Formen der alten Naturwissenschaft so weit entfernt, daß sie den Vorwurf auf sich zog, sie untersuche Artefkakte, aber nicht Natur. Die grundlegenden Theorien über Natur können in der Regel nur unter den künstlichen Bedingungen des Labors aufgestellt werden. Daraus darf aber nicht geschlossen werden, die anhand von Laborphänomenen aufgestellten und getesteten Theorien handelten nicht von der Natur außerhalb der Labore. Aber ihrer exakten und detaillierten Anwendung auf Prozesse außerhalb der Labore stehen eine Fülle von Schwierigkeiten entgegen. Insofern markiert das Labor sehr wohl eine Grenze exakter Naturforschung, die für den Umgang der wissenschaftlich-technischen Zivilisation mit der Natur wichtige Konsequenzen hat. (shrink)

Our fundamental theories about nature have to be established in laboratories under artificial conditions we seldom meet outside the labs. From this methodological fact does not follow that theories developed and tested in laboratories do not describe and explain nature outside the labs. But it is often impossible to apply that theories exactly and in full details to nature outside the laboratories. These limitations set to research on objects outside the labs have serious consequences for our contemporary civilization based on (...) science and technology how to deal with nature. German Die grundlegenden Theorien über die Natur können in der Regel nur unter den künstlichen Bedingungen des Labors aufgestellt werden, weil nur unter Laborbedingungen ablaufende Prozesse die Eigenschaften besitzen, die sie für uns zu theoriefähigen Gegenständen machen. Daraus darf nicht geschlossen werden, die anhand von Laborphänomenen aufgestellten und getesteten Theorien handelten nicht von der Natur außerhalb der Labore. Aber ihrer exakten und detaillierten Anwendung auf Prozesse außerhalb der Labore stehen eine Fülle von Schwierigkeiten entgegen. Insofern markiert das Labor sehr wohl eine Grenze exakter Naturforschung, die für den Umgang der wissenschaftlich-technischen Zivilisation mit der Natur wichtige Konsequenzen hat. (shrink)

This article examines two early modern models of dissertation authorship that both relied on extensive collaboration between the degree candidate and his supervisor. The dissertation conducted on the traditional model, practiced until the eighteenth century at German universities, was a joint product of the supervisor, who prepared the thesis in writing, and the degree candidate, who defended it in the oral disputation. The two collaborators shared the credit for a successfully defended thesis in different forms: right for public recognition and (...) rights to use and reproduce the thesis. Instead of sharing the credit as two equal partners, each of them took advantage of his credit in ways that benefited his status. In the model that Albrecht von Haller introduced at Göttingen, the supervisor provided the student with a laboratory and experimental training, while the degree candidate wrote a thesis by himself based on the experiments he carried out, and defended the thesis without the supervisor chairing the disputation. The Haller model reveals two new elements that heralded the development of modern scientific education: divisibility of laboratory labor between the student’s experimentation and the research program to which it belongs; and feasibility of the requirement of experimental work in return for the exclusive authorship of the doctoral thesis. (shrink)

From industrial psychology and occupational therapy to the laboratory bench and scenes of “heroic” fieldwork, there are important connections between the science of labor and the labor of science. Participants in the 2022 Gordon Cain Conference explored how greater attention to these connections might deepen historical understanding of what constitutes “science” and what counts as “labor.” Our conversations circled around themes of vulnerability (of systems, individual bodies, historical testimony), affect (pertaining to historical actors and ourselves), and (...) interdependence (e.g. across human groups, species, political boundaries, and time). For the members of this group, which grew out of a panel discussion, these themes and motivations coalesced around a topical focus on invisibility, which helped us to articulate – in the form of a co-created syllabus – research questions about science and labor from multiple angles pertaining to practice, archival preservation, and scholarly representation. This syllabus is organized into six thematic modules that aim to challenge and historicize the concept of invisible labor by facilitating comparisons across geographic, temporal, conceptual, and disciplinary boundaries. The goals of this collaborative syllabus, in sum, are manifold: we seek to facilitate more inclusive histories of science through critical engagement with “invisibility” and thereby promote a more expansive understanding of what constitutes scientific labor; to highlight the constitutive role of gendered labor practices in the scientific enterprise; to draw attention to interdependencies that make all forms of production (knowledge or material) possible; to elucidate systems of remuneration for scientific labor over the longue durée and through pointed comparisons; and, finally, to promote self-reflexivity about the methods we use to narrate the history of science and make sense of our own labors. (shrink)

The problem in the philosophy of science which interests me beyond all others is that of constructing an abstract deductive system isomorphic with the theory of the natural sciences. Clearly, this task must be the work of many years and many minds. Some portions of it have already been accomplished; but a great deal remains to be done, and the difficulties of the problems yet unsolved impress me as formidable. I believe, however, that it would be hard to overestimate the (...) benefits which might follow from the construction of such an abstract theory, always provided that that theory met certain conditions. Not only must the system in question measure up to the standards of rigor and precision set by the logicians, but it must also be cast in such form that a working scientist could learn to understand at least that part of it applicable to his own specialty without being forced to drop his professional work and devote the labor of years to mastering the subject. (shrink)

The paper analyses how knowledge claims can be extrapolated from laboratory situation to more complex situations. It argues that claims by Tetens, Knorr-Cetina and Cartwright that put doubts on extrapolation are unwarrented.

In lieu of an abstract, here is a brief excerpt of the content:Journal of the History of Philosophy 40.4 (2002) 545-546 [Access article in PDF] Book Review The Occult Laboratory: Magic, Science and Second Sight in Late 17th Century Scotland Michael Hunter, editor. The Occult Laboratory: Magic, Science and Second Sight in Late 17th Century Scotland. Rochester, NY: Boydell Press, 2001. Pp. vii + 247. Cloth, $90.00. This is a superb collection of original materials (including a range of (...) private correspondence, scribal works, and printed texts) related to the "strange reports" of incidence of "second sight" in Scotland from the 1680s to the 1700s. The material includes literary exchanges between powerful figures in the Anglo-Scottish intellectual community like Robert Boyle, John Aubrey, Robert Kirk, John Frazer, and Samuel Pepys. All of these texts are edited with immaculate care and informative annotation. The lengthy introduction provides both intellectual context and a detailed bibliographical account. Collectively the texts reproduced here provide a comprehensive resource for the examination of attitudes to magic and the supernatural in the late seventeenth century. From these texts one can reconstruct the battle between "orthodox" Anglican defenders of a "spirit world" and the sceptical assault on its authenticity. This was a war of ideas with the victors hoping to fix the meaning and nature of second sight as either supportive or corrosive of the established ecclesiastical institutions. Was this phenomena an established "matter of fact" which proved the routines of nature and also the paranormal intervention of God? Or was it, as some sceptics argued, evidence of priestly fraud and manipulation? The debates over the meaning and significance of these transgressions of the ordinary course of nature vacillated between treating them as acts of God or the Devil, as manifest frauds or ignorant misunderstandings. As Michael Hunter argues in his introduction, men like Boyle focussed upon the issue of second sight because it was a less exotic and less controversial phenomenon than the more culturally unstable manifestations of witchcraft. Fundamental to the orthodox cultural project was the creation of an empirically robust form of knowledge that combined folklore, antiquarian erudition, and biblical exegesis to establish the reality and boundaries of the natural and the divine.Although Hunter establishes the "origins" of the interest as an intellectual spin off from Boyle's project for the "Protestantisation" of the Highlands, the core text reproduced here is Robert Kirk's The Secret Commonwealth. Kirk, educated in Edinburgh and St. Andrews, was minister of Aberfoyle and worked with Boyle on his Gaelic Bible after 1684. This scriptural labor brought him to London in the late 1680s and into an elite Anglican circle that included Edward Stillingfleet. The text edited here is based on the earliest surviving manuscript of the early 1690s which was compiled from earlier notes. It is clear that the work was circulated in the period only in scribal form: a partial version was first printed in 1815 and a complete text in 1964. As Hunter establishes by examining Kirk's overlooked student notebooks from the 1660s and 1670s, it is possible to reconstruct the eclectic intellectual culture that formed the background to the work—here Aristotelian texts mingled with more modern authors like Campanella and Descartes. These notebooks not only record Kirk's pastoral concerns and the spiritual health of his flock, they also register a range of more exotic interests in folkish charms and the various operations and manifestations of the "invisible powers." The discovery of a "kingdom of fairies," which was apparently comprehensible to certain individuals with second sight, was ideal material upon which Kirk was able to synchronize the findings of Holy Scripture and modern natural philosophy.As Hunter's elegant and effective introduction outlines, men like Kirk, Frazer, and later Martin Martin, deliberately mimicking the epistemological strategies of the London-based Royal Society, aimed to display matters of fact as a dispassionate means of responding to the cultural assault of the sceptical wits who dismissed stories of the "lychnobious" world as [End Page 545] idle fantasy or deliberate fraud. Although this work was learned, serious, and erudite, and in the... (shrink)

This paper reports the results of an economic lab experiment designed to test the impact of Basic Income (BI) on wages and productivity. The experimental design is based on the classic gift exchange game. Participants assigned the role of employer were tasked with making wage offers, and those assigned as employees chose how hard they would work in return. In addition to a control without any social security net, BI was compared to unemployment benefits, and both types of cash transfers (...) were tested at two levels. The results are that wage offers were increased in both the BI and unemployment benefit treatments compared to the control. The higher-level BI treatment also significantly increased effort. Further experimentation could shed more light on how the potential extra value created in the labor market through increased productivity would be divided between employers and employees. (shrink)

This study of biological laboratory is focussed on the biological experiment. By confronting the real conditions of life science experiments with an ideal canon of experimental principles - which is constituted by the six preconceptions of separation, manipulation, control, distance, reproduction and homogeneity - the differences and specialities of biological experimentation are examined. This special constitution of biological experiments in the laboratory is a reaction of the special conditions of biological phenomena too. In a co-evolutionary process of trial-and-error (...) improvement of laboratory actions not only technical points but also natural conditions are impressed on the methodical executions. This special relation between ,,nature" and ,,art" can be described in the terms of Merleau-Pontys ,,chiasm". German Im Fokus dieser Untersuchung zum biologischen Labor steht die Analyse des Experiments. Durch konfrontative Gegenüberstellung der realen Forschungs-bedingungen in den Lebenswissenschaften mit dem Idealkonzept vom Experiment - gekennzeichnet durch die sechs Vorannahmen der Separation, Manipulation, Kontrolle, Distanz, Wiederholbarkeit und Homogenität - wird die spezifische Ausgestaltung des biologischen Methodenarsenals deutlich. Diese ist auch als eine Reaktion auf die besonderen Forschungsbedingungen der Biologie zu interpretieren. In einem koevolutiven ,,trial and error-Verfahren der Optimierung biologischer Laborhandlungen prägt sich bei aller Künstlichkeit auch eine ,,natürliche Vorgabe in den methodischen Vollzug ein. Dieses spezielle Verhältnis von ,,Natur und ,,Kunst kann in Analogie zu Merleau-Pontys Konzept des ,,Chiasmus interpretiert werden. (shrink)

This paper addresses two disciplinary expansion trends in social sciences: in sociology, by denying the distinction between human and non-human; in archaeology, relying on the objet-mémoire concept, which associates the ideas of social interaction and memory processes. We discuss them from an ethnographic study of the ordinary containers in a biology laboratory. The signs, drawn or engraved on their surface, are a proxy for a joint analysis of artifacts, textuality, institutionalization processes, and social stratification. Rather than such disciplinary expansions, (...) we argue in favor of an ethnography based on the “cultural technology” trend. ---------------------- Cet article identifie deux programmes d’extension disciplinaire en sciences sociales, fondés sur une redéfinition du statut accordé aux objets : en sociologie, en niant la distinction entre humain et non‑humain ; en archéologie, en introduisant le concept d’« objet‑mémoire », qui intègre l’interaction sociale et les processus mémoriels. Leur discussion est menée à partir d’une ethnographie des contenants usuels d’un laboratoire de biologie. Les marques apposées à leurs surfaces permettent l’analyse conjointe des ensembles d’artefacts, de leur textualité, des processus d’institutionnalisation et de la stratification sociale du laboratoire. Aux ambitions expansionnistes, on oppose une ethnographie des techniques fondée sur la technologie culturelle. (shrink)

New technologies can upset scientific workplaces’ established practices and social order. Scientists may therefore prefer preserving skilled manual work and the social status quo to revolutionary technological change. For example, digital imaging of rock-encased fossils is a valuable way for scientists to “see” a specimen without traditional rock removal. However, interviews in vertebrate paleontology laboratories reveal workers’ skepticism toward computed tomography imaging. Scientists criticize replacing physical fossils with digital images because, they say, images are more subjective than the “real thing.” (...) I argue that these scientists are also implicitly supporting rock-removal technicians, who are skilled and trusted experts whose work would be made obsolete by widespread implementation of CT scanning. Scientists’ view of CT as a sometimes useful tool rather than a universal new approach to accessing fossils preserves the laboratory community’s social structure. Specifically, by privileging “real” specimens and trusted specimen-processing technicians over images and imaging experts, scientists preserve the lab community’s division of labor and skill, hierarchy between scientists and technicians, and these groups’ identity and mutual trust. (shrink)

The vast network of Drosophila geneticists spawned by Thomas Hunt Morgan's fly room in the early 20th century has justifiably received a significant amount of scholarly attention. However, most accounts of the history of Drosophila genetics focus heavily on the "boss and the boys," rather than the many other laboratory groups which also included large numbers of women. Using demographic information extracted from the Drosophila Information Service directories from 1934 to 1970, we offer a profile of the gendered division (...) of labor within Drosophila genetics in the United States during the middle decades of the 20th century. Our analysis of the gendered division of labor supports a reconsideration of laboratory practices as different forms of work. (shrink)

This paper will address scientific collaboration at the Zoophysiological Laboratory during the 1911–1945 directorship of Nobel Prize winner August Krogh. Using authorship information and acknowledgments from the laboratory’s publications, this paper maps the many researchers involved in the work. In total, 193 different people contributed to the work at the Zoophysiological Laboratory. The paper further analyzes what labor, materials, ideas, and knowledge were exchanged between the individuals in the laboratory. While science has become more collaborative (...) throughout the twentieth century, this paper underlines that collaboration was very much part of the research process in the early twentieth century. (shrink)

This article deals with science content “in the making” and in particular the role of the body in producing scientific phenomena. While accounts of scientists’ work have repeatedly demonstrated, how producing phenomena requires immense amounts of time and effort, involving tinkering and manual labor, this is a little empirically studied content in science education. Seeking to shed light on how the body is involved with materiality to produce physics phenomena, and in what terms this is learning physics content, the (...) article first examines how bodily tinkering is a necessary part of knowing physics through reviewing major accounts of science studies and research in science education. Secondly, drawing on phenomenology and pragmatist ideas, the article examines how students’ bodies need to be educated in the transactional process with material and artifacts to produce phenomena in the context of science learning in lower secondary physics education. Demonstrating that embodied phenomena production is an inescapable part of learning scientific inquiry, and that bodies are just as much a part of the subject physics as conceptual knowledge, we suggest that the education of students’ bodies needs to be made an explicit content. This is important not only for making tacit content accessible to all, but also for addressing epistemological understandings of what science and technology is about. (shrink)

In the early twentieth century, fatigue research marked an area of conflicting scientific, industrial, and cultural understandings of working bodies. These different understandings of the working body marked a key site of political conflict during the growth of industrial capitalism. Many fatigue researchers understood fatigue to be a physiological fact and allied themselves with Progressive-era reformers in urging industrial regulation. Opposed to these researchers were advocates of Taylorism and scientific management, who held that fatigue was a mental event and that (...) productivity could be perpetually increased through managerial efficiency. Histories of this conflict typically cease with the end of the First World War, when it is assumed that industrial fatigue research withered away. This article extends the history of fatigue research through examining the activities of the Harvard Fatigue Laboratory in the 1920s and 1930s. The Laboratory developed sophisticated biochemical techniques to study the blood of exercising individuals. In particular, it found that exercising individuals could attain a biochemically “steady state,” or equilibrium, and extrapolated from this to assert that fatigue was psychological, not physiological, in nature. In contrast to Progressive-era research, the Laboratory reached this conclusion through laboratory examination, not of industrial workers, but of Laboratory staff members and champion marathon runners. The translation of laboratory research to industrial settings, and the eventual erasure of physiological fatigue from discussions of labor, was a complex function of institutional settings, scientific innovation, and the cultural meanings of work and sport. (shrink)

This contribution analyzes the general relation between nature and laboratory with respect to the alternative of a ,,presented" and a ,,self-presenting nature". It is argued that as essentially presented by technological means, ,,nature in the laboratory" has to be considered as a dimensionally reduced nature already incorporated to the objective world of man. The basic precondition of the emergence of laboratory science on the threshold of modern times was the introduction of a concept of an ,,active physics" (...) which itself presupposed the abandonment of a given ,,metaphysical" order of phenomena, especially in the sense of the Aristotelian substance-accidence-scheme. The logic of a suchlike forced ,,presentation of nature", and also the logic of the modern technology-dependent ways of progress in knowledge can precisely be analyzed within the theoretical framework of the Paul-Lorenzen-School (,,Methodological constructivism"). The concept of a ,,self-presenting nature", on the other hand, requires a genuine reflection of a philosophy of nature which is able to focus on the aspects of self-reference and differentiality of the genuine instances of nature. Finally three starting-points of a non-laboratorial way of thinking nature are discussed. German Der Beitrag analysiert das Verhältnis von Natur und Labor unter dem Gesichtspunkt der Alternative von ,,sich zeigender und ,,gezeigter Natur, wobei die im Labor auf dem Wege einer wesentlich technisch-praktischen Erwirkung konkret ,,gezeigte Natur eine der Gegenstandswelt des Menschen immer schon integrierte (und insoweit dimensional verkürzte) Natur ist. Die entscheidende Voraussetzung für die Entstehung der Laborwissenschaft an der Schwelle zur Neuzeit war die Einführung eines Konzepts ,,handelnder Physik, das seinerseits die Preisgabe einer vorgängigen ,,metaphysischen Ordnung der Phänomene (insbesondere im Sinne des Substanz-Akzidens-Gefälles) voraussetzt. Die Logik dieses ,,Zeigens der Natur ebenso wie die des modernen, technologieabhängig gewordenen Erkenntnisfortschritts ist wissenschaftstheoretisch mit den Mitteln des Methodischen Konstruktivismus präzise beschreibbar. Für den alternativen Begriff einer ,,sich zeigenden Natur als wesentlich polydimensionaler, einheitsbegrifflich nicht einholbarer Totalität bedarf es jedoch einer genuin naturphilosophischen Reflexion, die insbesondere die mit dem Natürlichen verbundenen Komponenten der Selbstbezüglichkeit und der Differentialität zu thematisieren vermag. Abschließend werden drei Ansatzpunkte eines ,,nichtlaboratorischen Naturdenkens diskutiert. (shrink)

Digital technologies are radically transforming our work environments and demand for skills, with certain jobs being automated away and others demanding mastery of new digital techniques. This global challenge of rapidly changing skill requirements due to task automation overwhelms workers. The digital skill gap widens further as technological and social transformation outpaces national education systems and precise skill requirements for mastering emerging technologies, such as Artificial Intelligence, remain opaque. Online labour platforms could help us to understand this grand challenge of (...) reskilling en masse. Online labour platforms build a globally integrated market that mediates between millions of buyers and sellers of remotely deliverable cognitive work. This commentary argues that, over the last decade, online labour platforms have become the ‘laboratories’ of skill rebundling; the combination of skills from different occupational domains. Online labour platform data allows us to establish a new taxonomy on the individual complementarity of skills. For policy makers, education providers and recruiters, a continuous analysis of complementary reskilling trajectories enables automated, individual and far-sighted suggestions on the value of learning a new skill in a future of technological disruption. (shrink)

In Sahan et al ’s article,1 they present the ethical challenges faced by clinical laboratory scientists in genetic medicine, including labour allocation and responsibility, interpretation and accuracy of results with new technologies, and the need for better standardisation and ethical consistency. At the same time, they also propose a potential solution to the aforementioned challenges: ethical preparedness(EP). Along with their vivid case discussions and insightful analysis, I would like to propose two more points that are worth further examination and (...) discussion to aid stakeholders in better comprehending the ethical issues that clinical laboratory scientists face in the practice of genetic medicine. The case 1 reported by Sahan et al raises concerns about who should be responsible for tracking families or individuals with genetic results, particularly in the absence of mainstream services to track future risks. However, this should not be a factor influencing the decision to inform gene carriers. If there is a clear division of responsibilities in current practice, clinical laboratory scientists can report detected gene carriers without psychological burden. However, the decision to report gene carriers should be based on who is being served when clinical laboratory scientists face genetic problems in clinical practice and who is being considered when …. (shrink)

The laboratory creation scene in Branagh’s film is brilliant….Even more frenzied and overwrought than Whale’s, Branagh’s creation scene is filmed with dozens of quick cuts, each shot full of movement across the frame. Victor races along his attic hall, cape flying before he discards it to appear bare-chested and vigorous. While pulleys move, bottles clank, and blue volts of electricity rise in glass Tesla tubes, the naked body on the gurney is raised into a copper vat. Electric eels dispense (...) their powerful shocks, a brown sac-like bellows "breathes" air or heat, and finally Victor stares close-up at the Creature’s eyes. The eyes are seen through a porthole in the vat: this, our first glimpse of the monster occurs nearly an hour into the film. "Live, live, live, live...." Victor chants, then "YES!" (much in the old Colin Clive mode) as it opens its eyes briefly. Nothing more occurs, though, and Victor walks away in despair; but, like us, he is brought suddenly to attention by a sharp and surprising snap of the monster’s fingers, which we also see close-up through a porthole (in a clear allusion to the Karloff monster’s birth scene). The next sequence drives home the fact that this is a real birth scene, as the vat is smashed open (the "water breaks") and Victor lifts out his huge new "baby," smacking its chest to clear its lungs. We watch an extended scene of birth struggle while Victor works to "deliver" his huge, naked, and hairless "baby" by lifting it out of the slime. Giving birth is not only very hard labor here; it’s messy, too. (shrink)

This article introduces a special section concerned with precariousness and cultural work. Its aim is to bring into dialogue three bodies of ideas — the work of the autonomous Marxist `Italian laboratory'; activist writings about precariousness and precarity; and the emerging empirical scholarship concerned with the distinctive features of cultural work, at a moment when artists, designers and (new) media workers have taken centre stage as a supposed `creative class' of model entrepreneurs. The article is divided into three sections. (...) It starts by introducing the ideas of the autonomous Marxist tradition, highlighting arguments about the autonomy of labour, informational capitalism and the `factory without walls', as well as key concepts such as multitude and immaterial labour. The impact of these ideas and of Operaismo politics more generally on the precarity movement is then considered in the second section, discussing some of the issues that have animated debate both within and outside this movement, which has often treated cultural workers as exemplifying the experiences of a new `precariat'. In the third and final section we turn to the empirical literature about cultural work, pointing to its main features before bringing it into debate with the ideas already discussed. Several points of overlap and critique are elaborated — focusing in particular on issues of affect, temporality, subjectivity and solidarity. (shrink)

Der Denkstil der Chemiker. Der Aufsatz diskutiert die Tragfähigkeit des Begriffes “Denkstil”, wie er von Alistair Crombie eingeführt und Ian Hacking aufgegriffen wurde, für das Verständnis dessen, wie das Fach Chemie historisch seine Identität ausgeprägt hat. Obwohl weder Crombie noch Hacking den Begriff “Denkstil” in Bezug auf einzelne Disziplinen verwendet haben, erscheint im Fall der Chemie seine Anwendung besonders vielversprechend, weil er hier hilft, ein zentrales Problem zu thematisieren – nämlich die Frage, wie es Chemikern trotz wechselnder Gegenstandsbereiche und theoretischer (...) Umbrüche gelang, eine eigenständige und stabile Identität auszubilden. Nach einer Einführung in den Begriff “Denkstil”, argumentiert der Aufsatz, dass die Beständigkeit der Chemie als eines Faches wesentlich in ihren Laborpraktiken gründet, die ihrerseits wiederum die spezifische Art der Fragen bestimmten, die Chemiker in ihren Forschungen stellten bzw. die Form der Antworten, nach denen sie suchten. Folgende Merkmale kennzeichnen diesen “chemischen Denkstil” (1) eine spezifische, im Herstellen begründete Form des Wissens, (2) die Befassung mit einzelnen Stoffen und Materialien statt mit Materie im Allgemeinen und (3) eine Beobachtung von Natur besonders im Hinblick auf Transformationsprozesse.The Chemists' Style of Thinking. This paper discusses the relevance of the notion of “styles of scientific thinking” introduced by Alistair Crombie and revisited by Ian Hacking, for understanding how chemistry shaped its identity. Although neither Crombie nor Hacking applied this notion to individual disciplines, it seems appropriate to use it in the case of chemistry because it helps to address a puzzling issue: how did chemists manage to shape an identity of their own, despite shifting territories and theoretical transformations? Following a presentation of the notion of style, I will argue that the stable identity of chemistry is rooted in laboratory practices, which determined the specific questions that chemists put to nature as well as the answers to their questions. The “chemical style of thinking” is characterized by i) a specific way of knowing through making, ii) the concern with individual materials rather than matter in general and iii) a specific commitment to nature. (shrink)

What happens to education when the potential it helps realizing in the individual works against the formal purposes of the curriculum? What happens when education becomes a vehicle for its own subversion? As a subject-forming state apparatus working on ideological speciesism, formal education is engaged in both human and animal stratification in service of the capitalist knowledge economy. This seemingly stable condition is however insecured by the animal rights activist as undercover learner and—worker, who enters education and research laboratories under (...) false premises in order to extract the knowledge necessary to dismantle the logic of animal utility on which the scientific-educational apparatus rests. The present article is based on a semi-structured interview with an undercover worker. It draws on a synthesis of critical education and posthumanist theories to configure knowledge creation and subjectification processes in the “negative spaces” of education. The techne of undercover work includes mnemotechnical and prosthetic devices, calculation of risk, and mimetic labor. The article argues that the agenda of the undercover worker generates a multi-strained mimetic complex that composes a parasitic educational subject-assemblage redirecting scientific knowledge away from the animal stratification logic of the knowledge economy into different viral circuits; different lines of flight. It invites a rearticulation of the formal education state apparatus in more indeterminate directions, provoking scientific-educational knowledge-practices to become a catalytic impulse for their own disintegration. (shrink)

Collections of living organisms are reservoirs of biological knowledge that operate across times and places. From the mid-20th century, scientific institutions dedicated to the cultivation of such collections have routinized and professionalized their care. But “care,” for these collections, is focused not just on individual organisms—instead, a principal aim of a curator is to maintain the integrity of a reproducing “strain,” “variety,” “line,” or “stock,” and the composition of a collection as a whole. This paper explores the forms, the material (...) dimensions, the temporalities, and the values of that care, to recover the conditions under which scientist-custodians maintain continuity of research over many decades. This paper does so by focusing on two rather different kinds of scientific collection: that of Drosophila fruit flies on the one hand, and plant seeds on the other. Their comparison is valuable because their vastly different needs and life cycles engender very different practices of care. Comparing the materialities, life cycles, needs, and values of these divergent collections helps to draw attention to the routine and the apparently mundane. First, the paper asks: what kinds of work go into managing such collections—that is, the day-to-day management and cultivation, surveillance, and administration of information? Second, it asks: how do these practices maintain the integrity of the strains and stocks, and the collections themselves? What kinds of value does this work create? Third, what are the future imaginaries that are rhetorically drawn into the funding strategies of these collections, and how do they envision future use, ownership, and control? (shrink)

This paper explores the use of new scientific techniques to examine collections of historic scientific apparatus and other technological artefacts. One project under discussion uses interferometry to examine the history of lens development, while another uses X-ray fluorescence to discover the kinds of materials used to make early mathematical and astronomical instruments. These methods lead to surprising findings: instruments turn out to be fake, and lens makers turn out to have been adept at solving the riddle of aperture. Although exciting, (...) in some ways this is neither novel nor particularly unusual. After all, lab techniques have been used in art and archaeological collections for a very long time. In fact, scientific instruments themselves have been examined in this way since at least the 1950s. What, then, is special about the use of new instruments to examine old instruments? We argue that the answer has less to do with measuring historical innovation or establishing priority, and more to do with networks of craft know-how that, typically, have left no other historical traces than those embodied in surviving instruments themselves. We show, in particular, how collections of objects can be mobilised within wider histories of knowledge, placing instruments within a dynamic interplay of craft knowledge, expertise, labour, commerce, and material exchange, over the longue durée. Finally, we suggest that these kinds of lab analyses can be given an extra dimension through the use of computational modelling, and we introduce the “Tools of Knowledge” project, which is designed to bring together XRF with techniques from the digital humanities, in order to tell a new story about the development of scientific instruments from the 16th to the 20th century. (shrink)

Much has been published about the ethical issues encountered by clinicians in genetics/genomics, but those experienced by clinical laboratory scientists are less well described. Clinical laboratory scientists now frequently face navigating ethical problems in their work, but how they should be best supported to do this is underexplored. This lack of attention is also reflected in the ethics tools available to clinical laboratory scientists such as guidance and deliberative ethics forums, developed primarily to manage issues arising within (...) the clinic.We explore what ethical issues are being experienced by clinical scientists, how they think such issues could be best analysed and managed, and whether their practice might be enhanced by more situated approaches to ethics deliberation and practice such as ethical preparedness. From thematic analysis of cases presented by clinical scientists at a specially convened meeting of the UK Genethics Forum, we derived three main ethical themes: (1) the redistribution of labour and responsibilities resulting from the practice of genomic medicine; (2) the interpretation and certainty of results and (3) the proposal that better standardisation and consistency of ethical approaches (for example, more guidelines and policy) could resolve some of the challenges arising.We argue that although standardisation is important for promoting shared understandings of good (including ethical) practice, supplementary approaches to enhance and sustain ethical preparedness will be important to help clinical scientists and others in the recently expanded genetic/genomic medicine environment foster quality ethical thinking. (shrink)

Abstract“Science Is Politics By Other Means” (SIPBOM) was coined in The Pasteurization of France, Latour’s 1984 empirical study of the birth of microbiology. Yet, it encapsulates an outstanding political theory of science that Latour has never formalized and that has remained unnoticed to this day. The theory is comprised of two dimensions. The first one is the ontological labor performed by science, that is, the laboratory production of new nonhumans. The second one is the ability of science to (...) devise and implement novel policies targeted at the new beings it produces. These “other means” are incorporated in political projects and contribute to the shaping of society. Fifteen years later, Latour published Politics of Nature ([1999] 2004), a full-blown political treatise equally devoted to the political character of science. It would be mistaken, however, to assume that it falls in the same SIPBOM paradigm as the Pasteur study. The compositionist theory it offers redefines politics as the institution of the nonhumans that make up external reality, a task that has traditionally been monopolized by Science. In this sense, “science is politics by other means” has become “politics is science by other means,” these “other means” now referring to “cosmopolitics,” that is, the due process advocated by compositionism. The first claim of the present paper is that the respective weight ascribed to politics and ontology is different in The Pasteurization of France and in Politics of Nature. The second claim is that compositionism is not as successful as Latour’s early theory to account for the politicity of science. (shrink)

The focus of my inquiry in this article is the figure of the Human that is enacted in the design of the humanoid robot. The humanoid or anthropomorphic robot is a model (in)organism, engineered in the roboticist’s laboratory in ways that both align with and diverge from the model organisms of biology. Like other model organisms, the laboratory robot’s life is inextricably infused with its inherited materialities and with the ongoing — or truncated — labours of its affiliated (...) humans. But while animal models are rendered progressively more standardised and replicable as tools for the biological sciences, the humanoid robot is individuated and naturalised. Three stagings of human— robot encounters (with the robots Mertz, Kismet and Robota respectively) demonstrate different possibilities for conceptualising these subject objects, for the claims about humanness that they corporealise, and for the kinds of witnessing that they presuppose. (shrink)

This book details the results of the authors' research using laboratory animals to investigate individual choice theory in economics-consumer-demand and labour supply behaviour and choice under uncertainty. The use of laboratory animals provides the opportunity to conduct controlled experiments involving precise and demanding tests of economic theory with rewards and punishments of real consequence. Economic models are compared to psychological and biological choice models along with the results of experiments testing between these competing explanations. Results of animal experiments (...) are used to address questions of social policy importance. (shrink)

The ArgumentIt is often assumed that all sciences travel the path of increasing precision and quantification. It is also assumed that such processes transcend the boundaries of rival scientific disciplines. The history of the personal equation has been cited as an example: the “personal equation” was the name given by astronomers after Bessel to the differences in measured transit times recorded by observers in the same situation. Later in the nineteenth century Wilhelm Wundt used this phenomenon as a type for (...) his experiments on reaction times. For historians of psychology, this has been taken to be an exemplary case where quantified laboratory science rescued astronomy by showing that this was really a psychological phenomenon measurable only in complication experiments. This paper challenges this story. Astronomers neither ignored, nor despaired of, the personality problem. Instead, the managers of the great observatories developed a new chronometric regime of vigilant surveillance of subordinate observers. The astronomers' solution was thus intimately connected with social and material changes in their way of life: a division of labor in the observatories, a network of observing sites, a mechanization of observation. The paper documents these changes and then presents a study of one case where managers, amateurs, and psychologists clashed for authority over the personality problem. Measurement is given its meaning when situated in specific contexts of styles of work and institutions. Disciplines give meanings to values, and often resist attempts by others to redefine these meanings or to gain authority over measurement. Quantification is not a self-evident nor inevitable process in science's history, but possesses a remarkable cultural history of its own. (shrink)

Differences between men and women in the performance of tests designed to measure spatial abilities are explained by evolutionary psychologists in terms of adaptive design. The Hunter-Gatherer Theory of Spatial Ability suggests that the adoption of a hunter-gatherer lifestyle (assuming a sexual division of labor) created differential selective pressure on the development of spatial skills in men and women and, therefore, cognitive differences between the sexes. Here, we examine a basic spatial skill—wayfinding (the ability to plan routes and navigate (...) a landscape)—in men and women in a natural, real-world setting as a means of testing the proposition that sex-based differences in spatial ability exist outside of the laboratory. Our results indicate that when physical differences are accounted for, men and women with equivalent experience perform equally well at complex navigation tasks in a real-world setting. We conclude that experience, gendered patterns of activity, and self-assessment are contributing factors in producing previously reported differences in spatial ability. (shrink)

Many decades after the publication of Genesis and development of a scientific fact, Fleck’s collective Denkstil remains a very important notion for analyzing the history of the biological and medical sciences. Following Fleck’s perspective this paper argues that the history of the sex hormones was critically shaped by our representation of the sexes, and our perceptions of the division of reproductive labor. Emerging at the boundary between physiological laboratories and consultation room, a molecular/endocrine style of thought stabilized during the (...) early decades of the twentieth century around the manipulation of sex hormones. This not only proved important in normalizing the sexual body, but also in defining sterility, menstrual disorders or menopause as pathological events to be treated ‘causally’.Analyzing the role played by industrial companies like the German firm Schering which produced these drugs, the paper suggests that the idea of a work style may be a convenient way to complement Fleck’s style of thought. First, the idea of work style is a reminder that science involves material action, which has strong links with industrial production. Second, it draws our attention to a deeply entrenched goal of the modern biosciences, the search for means to control the variability of the living, and standardize its uses. (shrink)

Ob Mikroskop, Refraktometer, Vakuumpumpe oder Ultraschallbad - viele der Gerätschaften, die im chemischen und analytischen Labor Verwendung finden, lassen sich mit der Kenntnis ihrer physikalischen Grundlagen leichter und sicherer einsetzen. Dieses einführende Lehrbuch ist speziell für den Physikunterricht im Rahmen einer Ausbildung zum Chemisch-technischen Assistenten konzipiert und widmet sich vorrangig solchen Themen, die für die Laborpraxis von Bedeutung sind. Dazu gehören insbesondere die Optik, die Wärme- und Elektrizitätslehre sowie die Radioaktivität. Alle wichtigen Formeln und physikalischen Beziehungen werden durch Rechenbeispiele (...) mit Lösungen veranschaulicht. Mit seinem durchgehenden Praxisbezug leistet dieses Buch auch nach abgeschlossener Ausbildung noch gute Dienste. "Das Buch kann Chemisch-technischen Assistenten und Schülern an naturwissenschaftlich-technischen Berufsfachschulen nur empfohlen werden." (GIT Labor-Fachzeitschrift). (shrink)

In this paper, I address a question in social epistemology about the unity of a scientic community to- wards its inner groups (teams, labs...). I investigate the reasons why these groups might want to \go it alone", working among themselves and hiding their discoveries from other groups. I concentrate on the intermediate results of a longer project, where the first steps can help to achieve a more advanced result. I study to what extent the isolation of research groups might be (...) damaging to the epistemic progress of the whole community. In order to get an idea of the reason why scientists might not share their intermediate results with others, consider for example Schawlow and Townes in the summer of 1958 (the historical material is drawn from Broberg, 1991, chap. 3): together they had just designed the principle of functioning of what would be known as the laser, with the intention of constructing the rst laser, relying on their theoretical ideas. Should they have published their theoretical discovery, or rather taken advantage of their advance on possible oppo- nents and start the experimental work? They chose to publish their theoretical ideas in a scientic journal, and they also led a patent application. On the one hand, it was a valuable choice: the patent was granted and their paper was published, making them soon famous. Further- more, another scientist called Gould was to le a simi- lar patent application a few months later, in March 1959; it was refused, because of the priority of Schawlow and Townes. If the latter had not submitted their idea in 1958, the patent would certainly have been acknowl- edged to Gould. In this sense, publishing their intermediate result was a worthy strategy. On the other hand, history showed that their publication had also some drawbacks for them. Schawlow and Townes' publication triggered a race among many American laboratories for the rst experimental construction of the laser. In addition to bringing them competitors, their publication helped these competitors in crucial ways; so much so that it was another scientist, Maiman, and not Schawlow and Townes, who was able to build the rst working laser, in May 1960, and to publish the result. If Schawlow and Townes had not published their theoretical idea, there are chances that they would have been the first ones to build a laser. Their publication of the first theoretical result certainly prevented them from getting the second experimental one. In short, the best publishing strategy about an intermediate result is no easy question for a scientist. Consider now the whole community, concerned with the results available to all and with the pace of the epistemic progress. Schawlow and Townes' publication enabled the rst laser to be built quicker, as other teams could rely on their theoretical work. More generally, being able to reuse other's works seems to be a rm basis of scientic progress. Thus, for the whole community, it seems that there are only benets if intermediate results are published. As this is not necessarily the best strategy for those who reach these intermediate results, there might be a conflict between the interests of individuals and those of the whole community. The question Schawlow and Townes faced was whether they should make their discovery publicly known, or keep it for themselves to progress alone. This alternative can also arise for an entire lab, when competing with other labs on some long-run project: should it make its discoveries known to its opponents, or only share them internally among its members? At a higher level still, this question arises for what can be called scientic schools, which are groups of labs sharing some particular approach|methodological, experimental or interpre- tational, for example. At each level within the scientic community, there are competitive groups of scientists which may decide to go it alone and to prevent their results from being accessible to others. If they had good reasons for doing so, there would be dramatic consequences for the whole community: other groups would not be able to reuse their results, labour force would be wasted in achieving them again, and the progress of the eld would be slowered. 9 The aim of this paper is to investigate this risk of division: to assess the conditions under which it may oc- cur, its damage for the community, and to draw the limit of an acceptable pluralism. The reasoning with benets and drawbacks which has been sketched for Schawlow and Townes seems to be implicitly an informal economic argument. In order to clarify and to rene such an argument, I will investigate it in a rational decision framework, supposing some utility or preferences for the groups of scientists, and I will propose a formal model, in game theory. In social epistemology of science, formal models have been proposed for various questions (for example, Kitcher 1990, 1993, Goldman 2009, Strevens 2003, 2006, Weisberg and Muldoon, forthcoming, Zollman 2007, 2008, 2009, 2010), but not for the question of the division of the scientic community. I will concentrate on the normative aspect of the question, ignoring the descriptive and historical question of whether groups do go it alone or not. The model I propose is sequential: two groups are competing on a research program, which consists of several results which have to be obtained in order. The groups always carry out some research for the next result, which they reach with some probability per unit of time. When a group, say A, reaches a result, it can either make it public for the other group, or continue its research. After a result is made public, the competitor B can start from it so as to continue its own research. Thus, when A publishes it loses its lead, and its competitor will be able to compete with it in the near future. But it is also recognized as the rst to reach this step. I consider two dierent cases, one in which the number of steps is limited, another where the limit concerns the number of temporal intervals. In both cases, assuming that all steps are equally dicult and equally rewarding, it turns out that the best strategy for a group concerned with its own reward is to make public every step it takes. Thus, there is no risk that groups might separate: a scientist, whatever its group, will publish for all. Finally, I turn to more complex situations, where results have varying size or diculty: there, groups can indeed be better o going it alone. (shrink)

El propósito fundamental del trabajo fue destacar la trascendencia social de las ciencias básicas biomédicas en la superación profesional de los tecnólogos en Laboratorio Clínico, egresados de la Facultad de Tecnología de la Salud de Camagüey. Se partió de las insuficiencias que influyen en el desempeño profesional de estos licenciados, y se justifica la importancia de las ciencias básicas biomédicas para el laboratorista clínico. Se concluyó que la ciencia y la tecnología son prácticas sociales que debe tener en cuenta en (...) su labor cotidiana el tecnólogo de la salud en Laboratorio Clínico y la necesidad de las ciencias básicas biomédicas en la superación profesional de estos tecnólogos ya que aportan los fundamentos científicos del proceder técnico en un laboratorio, lo cual permite capacitar un profesional no solo para llevar a cabo procederes, sino para comprender el porqué de los mismos. The main goal of this work was to highlight the social implications of the basic biomedical sciences in the professional training of the technologist in clinical laboratory graduated at the Health Technologic Faculty in Camaguey taking into account the insufficiencies in the professional performance of these specialists. It was evident that science and technology are social practices that the health technologist specialized in clinical laboratory has to take into account and the need of basic biomedical sciences in the professional development of these technologists because they offer the scientific basis of the technical procedure in a laboratory which allows the professional training not only to perform the procedures but also to understand the reason of them. (shrink)

The Oxford Handbook of the Economics of Networks represents the frontier of research into how and why networks they form, how they influence behavior, how they help govern outcomes in an interactive world, and how they shape collective decision making, opinion formation, and diffusion dynamics. From a methodological perspective, the contributors to this volume devote attention to theory, field experiments, laboratory experiments, and econometrics. Theoretical work in network formation, games played on networks, repeated games, and the interaction between linking (...) and behavior is synthesized. A number of chapters are devoted to studying social process mediated by networks. Topics here include opinion formation, diffusion of information and disease, and learning. There are also chapters devoted to financial contagion and systemic risk, motivated in part by the recent financial crises. Another section discusses communities, with applications including social trust, favor exchange, and social collateral; the importance of communities for migration patterns; and the role that networks and communities play in the labor market. A prominent role of networks, from an economic perspective, is that they mediate trade. Several chapters cover bilateral trade in networks, strategic intermediation, and the role of networks in international trade. Contributions discuss as well the role of networks for organizations. On the one hand, one chapter discusses the role of networks for the performance of organizations, while two other chapters discuss managing networks of consumers and pricing in the presence of network-based spillovers. Finally, the authors discuss the internet as a network with attention to the issue of net neutrality. (shrink)