I argue that our judgements regarding the locally causal models that are compatible with a given constraint implicitly depend, in part, on the context of inquiry. It follows from this that certain quantum no-go theorems, which are particularly striking in the traditional foundational context, have no force when the context switches to a discussion of the physical systems we are capable of building with the aim of classically reproducing quantum statistics. I close with a general discussion of the possible implications (...) of this for our understanding of the limits of classical description, and for our understanding of the fundamental aim of physical investigation. _1_ Introduction _2_ No-Go Results _2.1_ The CHSH inequality _2.2_ The GHZ equality _3_ Classically Simulating Quantum Statistics _3.1_ GHZ statistics _3.2_ Singlet statistics _4_ What Is a Classical Computer Simulation? _5_ Comparing the All-or-Nothing GHZ with Statistical equalities _6_ General Discussion _7_ Conclusion. (shrink)

In diesem Beitrag lege ich dar, dass in der zweiten Hälfte des 20. Jahrhunderts das Konzept von Werkstoffen (materials) als charakteristischer ontologischer Typus eines neuen Forschungs- und Wissenschaftsstils aufkam. Das soll nicht heißen, dass Werkstoffe niemals zuvor wissenschaftlich bearbeitet worden wären. Zweifellos hatten sich zahlreiche wissenschaftliche Disziplinen mit den Eigenschaften einer ganzen Reihe von Werkstoffen befasst. Doch wurden dabei Werkstoffe nicht als generische, also alle Arten von Stoffen umfassende, Entität betrachtet.Ziel dieses Aufsatzes ist zu verstehen, wie Werkstoffe als Gattungseinheit entstanden (...) sind und zu Objekten einer Wissenschaft wurden, die so unterschiedliche Dinge wie Papier, Holz, Metalle, Beton, Keramik, Polymere, Halbleiter und Kohlenstoff-Nanoröhren umfasst. Im Bemühen, die historischen Begleitumstände des Auftretens von Werkstoffen zu bestimmen, werde ich diese zunächst in historischer und ontologischer Hinsicht einordnen. Wie war es möglich, all diese Dinge in einer einzigen Gattung zu vereinigen? Dann wende ich mich dem sich verändernden Status von Werkstoffen zu, ein Resultat der erfolgreichen Materialforschung. Werkstoffe sind nicht länger die Vorbedingungen, die dem Entwurfsprozess Beschränkungen auferlegen, sondern werden nun selbst spezifisch entworfen. Solche materials by design sind echte, individuell zugeschnittene Schöpfungen und nicht nur einfach Handelsprodukte. Zudem birgt der Wandel ihres ontologischer Status ein Paradox mit seiner Tendenz zur Entmaterialisierung von Technik. (shrink)

In diesem Beitrag lege ich dar, dass in der zweiten Hälfte des 20. Jahrhunderts das Konzept von Werkstoffen (materials) als charakteristischer ontologischer Typus eines neuen Forschungs- und Wissenschaftsstils aufkam. Das soll nicht heißen, dass Werkstoffe niemals zuvor wissenschaftlich bearbeitet worden wären. Zweifellos hatten sich zahlreiche wissenschaftliche Disziplinen mit den Eigenschaften einer ganzen Reihe von Werkstoffen befasst. Doch wurden dabei Werkstoffe nicht als generische, also alle Arten von Stoffen umfassende, Entität betrachtet.Ziel dieses Aufsatzes ist zu verstehen, wie Werkstoffe als Gattungseinheit entstanden (...) sind und zu Objekten einer Wissenschaft wurden, die so unterschiedliche Dinge wie Papier, Holz, Metalle, Beton, Keramik, Polymere, Halbleiter und Kohlenstoff-Nanoröhren umfasst. Im Bemühen, die historischen Begleitumstände des Auftretens von Werkstoffen zu bestimmen, werde ich diese zunächst in historischer und ontologischer Hinsicht einordnen. Wie war es möglich, all diese Dinge in einer einzigen Gattung zu vereinigen? Dann wende ich mich dem sich verändernden Status von Werkstoffen zu, ein Resultat der erfolgreichen Materialforschung. Werkstoffe sind nicht länger die Vorbedingungen, die dem Entwurfsprozess Beschränkungen auferlegen, sondern werden nun selbst spezifisch entworfen. Solche materials by design sind echte, individuell zugeschnittene Schöpfungen und nicht nur einfach Handelsprodukte. Zudem birgt der Wandel ihres ontologischer Status ein Paradox mit seiner Tendenz zur Entmaterialisierung von Technik. (shrink)

This paper traces the origins of the styles project, originally presented as ‘styles of scientific reasoning’. ‘Styles of scientific thinking & doing’ is a better label; the styles can also be called genres, or, ways of finding out. A. C. Crombie’s template of six fundamentally distinct ones was turned into a philosophical tool, but with a tinge of Paul Feyerabend’s anarchism. Ways of finding out are not defined by necessary and sufficient conditions, but can be recognized as distinct within a (...) sweeping, anthropological, vision of the European sciences. The approach is unabashedly whiggish. The emergence of these styles is part of what Reviel Netz calls cognitive history, and is to be understood in an ecological way. How did a species like ours, on an Earth like this, develop a few quite general strategies for finding out about, and altering, its world? At a more analytical level, the project invokes Bernard Williams’ notion of truthfulness to explicate the idea that these styles are ‘self-authenticating’ and without foundations. The paper concludes with open questions. What role have these few fundamentally distinct genres of inquiry played in the formation of the anomalous Western idea of Nature apart from Man? (shrink)

RESUMO Neste artigo pretendo identificar um "estilo de raciocínio" próprio à química e apontar a disseminação de seus produtos e conceitos. O objetivo é o de explicitar alguns elementos que caracterizam o estilo de pensar e de fazer da química na segunda metade do século XVIII, sua capilarização técnico-cultural. O delineamento de um estilo químico de raciocinar origina-se da constância dos espaços técnico-epistêmicos em que o saber químico é construído. A química é uma ciência de laboratório, eminentemente técnica e operatória, (...) quer dizer, trata-se de um conhecimento técnico-científico stricto sensu. Produtora de artefatos, a ciência química é inseparável da técnica, da tecnologia e da indústria, de maneira que sua identidade epistêmica é indissociável de sua história. Seu estilo caracteriza um valor profundo na cultura técnica do homo faber, do poder de agir sobre a natureza e de transformá-la através de manipulações e de rearranjos. ABSTRACT In this paper I will identify a "style of reasoning" that is proper to to Chemistry and to point to the dissemination of its products and concepts. My aim is to explain some elements that characterize the style of thinking and engaging in Chemistry in the second half of the 18th century, its techno-cultural capillary action. The shaping of a chemical style of reasoning originated from the constancy of the techno-epistemic sites in which chemical knowledge is formed. Chemistry is a laboratory science, eminently technical and operative, i.e., it deals with a techno-scientific knowledge stricto sensu. A producer of artifacts, chemical science is inseparable from technique, technology and industry, in such a way that its epistemic identity is inseparable from its history. Its style marks a profound value in the technical culture of the homo faber, the power of acting upon nature and transforming it through manipulations and rearrangements. (shrink)

While chemists today work in a variety of professional domains—ranging from medicine and pharmaceutical companies to nuclear technology, biotechnology, and nanotechnology—students are taught chemistry as if it were a unified discipline with a specific territory and a common language shared by all chemists. The chemists’ imaginary is shaped around the image of a diaspora: a scattered population of former inhabitants of a homeland immersed in foreign countries and yet retaining their cultural identity. This essay suggests an alternative perspective on the (...) basis of four different case studies of engagement of chemists beyond the traditional turf of chemistry: nuclear technology, materials science and engineering, synthetic biology, and nanotechnology. Instead of assuming that there is a predetermined territory of chemistry, it argues that the epistemic profile of chemistry is shaped by the various “terrains” (or fields) where chemists are working. The image of a family tree deeply rooted in soil should be replaced by that of a large and loose rhizome network. (shrink)

The linkages and interactions of scientific disciplines with industry, politics, and society have long been a staple in the history of science, the history of technology, and science studies. However, it is arguable that the impact of this intertwining on the epistemic and social core of scientific disciplines has not yet been sufficiently explored. Chemistry is an ideal case in point, given that it has emerged as one of the largest scientific disciplines while at the same time becoming one of (...) the world’s most powerful technologies. Specifically, chemistry’s power lies in its ability to gain knowledge of the natural world by transforming it, along with the society in which it is embedded. The four contributions to this Focus section all address chemistry’s border permeability, based on its transformative powers; they focus on the feedback mechanisms that transformed chemistry and thereby altered the very concept of a scientific discipline. So successful has this “nonclassical approach” become that, in the opinion of the contributors to this Focus section, it is now both necessary and advisable to study the history of chemistry’s embeddedness and power in science and technology. (shrink)