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The widespread adoption of standard time in Britain took more than fifty years and simple public access to a representation of it took longer still. Whilst the railways and telegraph networks were crucial in the development of standardized time and time-distribution networks, very different contexts existed, from the Victorian period onwards, where time was significant in both its definition and its distribution. The moral drive to regulate and standardize aspects of daily life, from factory work to the sale of liquor, led to time being used as a tool for control. Yet, as a tool, it was problematic, both in its own regulation and in the regulation of its distribution. Companies such as the Standard Time Company, in creating businesses out of time distribution, found themselves at the heart of discussions of time and standards, acting, as they did, as a nexus between the nation's master timekeeper, the Royal Observatory, and London public houses, Lancashire cotton mills and myriad small businesses. We can see this network both literally, in electric wires, clocks, batteries and relays, and metaphorically, transmitting Victorian moral concerns of ‘power’ and ‘intelligence’ between imperial state and individual. Naturally enough, the network itself was as contested as the message it transmitted.
In 1854 Admiral FitzRoy, acting as the first head of the Meteorological Department of the Board of Trade, initiated a project to distribute fishery barometers to poor fishing communities. Over the next eleven years until his untimely death in 1865, FitzRoy oversaw the distribution of dozens of barometers. The distribution continued after his death and many of the original barometers are still in place. FitzRoy's tenure at the Met Department is today remembered for his innovative and controversial development of weather forecasts, the first of their kind in Britain, which were telegraphed to coastal towns to warn of impending storms. Against the backdrop of this dramatic attempt to predict the weather using the tools of telegraphy and synoptic mapping, the barometer distribution project looks like an unexceptional piece of administration, a routine shuttling of correspondence and instruments. Closer inspection reveals a case study in Victorian governance that shows how individuals could contribute to elite forms of science by remaining independent of them in key respects. Rather than providing disciplined and trustworthy registrations of nature's language, the fishery barometers distributed by FitzRoy and the Met Department were explicitly excluded from the wider project to map British and global weather. By being thus excluded, they helped augment the autonomy of their intended users, the poor fishermen who were thereby made into better, more independent, interpreters of the Met Office forecasts. By revealing the potential for an instrument to be useful when not registering, this episode suggests that instruments could augment as well as replace the autonomous judgements of individuals.
In his presidential address to the Belfast meeting of the British Association for the Advancement of Science in 1874, John Tyndall launched what David Livingstone has called a ‘frontal assault on teleology and Christian theism’. Using Tyndall's intervention as a starting point, this paper seeks to understand the attitudes of Presbyterians in the north of Ireland to science in the first three-quarters of the nineteenth century. The first section outlines some background, including the attitude of Presbyterians to science in the eighteenth century, the development of educational facilities in Ireland for the training of Presbyterian ministers, and the specific cultural and political circumstances in Ireland that influenced Presbyterian responses to science more generally. The next two sections examine two specific applications by Irish Presbyterians of the term ‘science’: first, the emergence of a distinctive Presbyterian theology of nature and the application of inductive scientific methodology to the study of theology, and second, the Presbyterian conviction that mind had ascendancy over matter which underpinned their commitment to the development of a science of the mind. The final two sections examine, in turn, the relationship between science and an eschatological reading of the signs of the times, and attitudes to Darwinian evolution in the fifteen years between the publication of The Origin of Species in 1859 and Tyndall's speech in 1874.
This paper concerns the movement of the old navigational instrument, the compass, into the new situation of the aeroplane in the early part of the twentieth century. In order for the technology that had so long resided on ships or in the hand to continue to function in new contexts, a huge amount of work was required. Relationships were forged and made fraught, inventions were made to contest and succeed one another, new scientific and technical knowledge was produced. Throughout, the perceived nature of compasses and magnetic fields underwent subtle but significant shifts. Until recently histories dealing with the emergence of the aerocompass have largely black-boxed the technological changes, with only superficial treatment of issues lying beyond the compass itself.1 John Bradley's exploration of the feud between the Admiralty and military compass designers, and the sections in both Bradley's and A. E. Fanning's work on lawsuits over originality,2 go some way towards rectifying this imbalance. This paper extends that work further. It focuses on events in Britain, particularly those centred on two institutions, the Admiralty Compass Observatory at Ditton Park, Slough, and the Royal Aircraft Factory (later the Royal Aircraft Establishment) at Farnborough.
This paper explores the history of radio echo-sounding (RES), a technique of glaciological surveying that from the late 1960s has been used to examine Antarctica's sub-glacial morphology. Although the origins of RES can be traced back to two accidental findings, its development relied upon the establishment of new geopolitical conditions, which in the 1960s typified Antarctica as a continent devoted to scientific exploration. These conditions extended the influence of prominent glaciologists promoting RES and helped them gather sufficient support to test its efficiency. The organization and implementation of a large-scale research programme of RES in Antarctica followed these developments. The paper also examines the deployment of RES in Antarctic explorations, showing that its completion depended on the availability of technological systems of which RES was an integral part.
The British Association for the Advancement of Science sought to promote the understanding of science in various ways, principally by having annual meetings in different towns and cities throughout Britain and Ireland (and, from 1884, in Canada, South Africa and Australia). This paper considers how far the location of its meetings in different urban settings influenced the nature and reception of the association's activities in promoting science, from its foundation in 1831 to the later 1930s. Several themes concerning the production and reception of science – promoting, practising, writing and receiving – are examined in different urban contexts. We consider the ways in which towns were promoted as venues for and centres of science. We consider the role of local field sites, leading local practitioners and provincial institutions for science in attracting the association to different urban locations. The paper pays attention to excursions and to the evolution and content of the BAAS meeting handbook as a ‘geographical’ guide to the significance of the regional setting and to appropriate scientific venues. The paper considers the reception of BAAS meetings and explores how far the association's intentions for the promotion of science varied by location and by section within the BAAS. In examining these themes – the geographical setting of the association's meetings, the reception of association science in local civic and intellectual context and the importance of place to an understanding of what the BAAS did and how it was received – the paper extends existing knowledge of the association and contributes to recent work within the history of science which has emphasized the ‘local’ nature of science's making and reception and the mobility of scientific knowledge.
Many historians today prefer to speak of knowledge and practice rather than science and technology. Here I argue for the value of reinstating the terms science, techniques and technology as tools for a more precise analysis of governmentality and the workings of power. My tactic is to use these three categories and their articulations to highlight flows between matter and ideas in the production and reproduction of knowledge. In any society, agriculture offers a wonderfully rich case of how ideas, material goods and social relations interweave. In China agronomy was a science of state, the basis of legitimate rule. I compare different genres of agronomic treatise to highlight what officials, landowners and peasants respectively contributed to, and expected from, this charged natural knowledge. I ask how new forms of textual and graphic inscription for encoding agronomic knowledge facilitated its dissemination and ask how successful this knowledge proved when rematerialized and tested as concrete artefacts or techniques. I highlight forms of innovation in response to crisis, and outline the overlapping interpretative frameworks within which the material applications of Chinese agricultural science confirmed and extended its truth across space and time.
It is well known that the development of a diphtheria anti-toxin serum evolved in a competitive race between two groups of researchers, one affiliated with Emil Behring in Berlin and Marburg, and another affiliated with Émile Roux in Paris. Proceeding on the basis of different theoretical assumptions and experimental practices, the two groups developed a therapeutic serum almost simultaneously. But the standardized substance they developed took on very different forms in the two countries. In Germany the new serum was marketed in the private sphere and subjected to state regulations, becoming a kind of prototype of industrial medications. In France, however, the same substance was marketed as a gift of science to humanity and distributed through the communal health care system. This article demonstrates how a new medication emerged from the efforts to produce, market, regulate, distribute, and apply it in the two respective countries. It attributes the difference to the negotiations between the respective actors (scientists, industrialists, politicians, officers, and the public) and institutions (firms, academies, private and public institutes, legislative bodies, professional corporations). I develop this argument on three different levels: First, I stress the importance of the institutional foundations of serum production; second, I illustrate the decisive role played by existing “ways of regulating” in the rapid development of new legal statutes; and third, I describe the consequences that flowed from the respective administrative organization of marketing and dissemination. In sum, I explore how an experimental object was transformed into an object of the public health system and stabilized by administrative means.