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John Fleming (1785–1857), later professor in Aberdeen and Edinburgh, made his combative contribution to natural history between 1812 and 1832. As an Edinburgh student he had followed Robert Jameson's ‘Wernerian’ lead. His earliest publications, from 1813, expressed what was to be a lifelong hostility to the work of James Hutton. Yet his own thinking moved increasingly towards a ‘uniformitarian’ as opposed to a ‘catastrophist’ view of earth history. His Philosophy of Zoology (1822) embodied criticism of Cuvier. More dramatically, he became embroiled in controversy with Buckland and later with Conybeare. By then the ‘uniformitarian’ hypothesis had been adopted by Lyell, with whom Fleming was in close touch from the mid-1820s. Fleming may have had some grounds for feeling that his priority in advocating uniformitarianism was later overlooked. His History of British Animals (1828) included a preface in which he elaborated his earlier hypothesis as to ‘revolutions … in the animal kingdom’ correlated with six geological epochs. Tension had then developed in Fleming's relationship with Jameson, and the early 1830s found him in a mood of increasing frustration. Reconciliation with Buckland and approval by Sedgwick still left ‘the Zoological Ishmael’ feeling that his advancement in the scientific world was blocked, perhaps permanently. In historical perspective Fleming may be seen as a minor but not insubstantial figure in the scientific landscape of the early nineteenth century.
The establishment of research and development (R & D) laboratories by the UK affiliates of overseas-controlled firms was a feature of the R & D landscape throughout the twentieth century and had its origins even earlier. From their foundation they served as sites for international scientific and technological collaboration and exchange. Here I draw on both quantitative and qualitative evidence to examine the research and development activities of overseas multinational enterprises in the UK. This activity has a longer history than most previous commentators have suggested. The integration of at least some R & D facilities into international research networks was already a feature during the inter-war years. This became far more common after the early 1960s, as firms worked hard to integrate previously independent laboratories into coordinated research organizations. Far from being a ‘new collaborative mode’ in the late twentieth century, cross-border networks of industrial laboratories have long contributed to the internationalization of science.
This paper presents the story of two calculating machines invented by Sir Samuel Morland (1625–95) in the 1660s. These instruments are the earliest known mechanical calculators made in England. Their designs are unusual and very much of their time. They appealed to some, especially at court, and were dismissed by others, such as Robert Hooke. The first part of the paper introduces Morland and the courtier–inventor's world, in which a reputation as a ‘machinist’ or an engineer could accompany high social status. It considers why a former diplomat and postal spy would turn to invention in general and to mechanical calculators in particular as a career move in the Restoration court. The second part addresses the instruments – attention to their design reveals Morland's inspiration. The paper concludes with an examination of the market for the calculators in London, Paris and Florence. While it is notable that the calculators circulated both in court and in the commercial sphere, even more interesting is the contrast between their receptions in these two spheres. The story of these machines and their maker helps flesh out the poorly understood world of the courtier–inventor in early modern England.
The Cambridge school of animal morphology dominated British zoology in the late nineteenth century. Historians have argued that they were very successful until the death of their leader F. M. Balfour in 1882, when the school all but died with him. This paper argues that their initial success came about because their work fitted well with the university in the 1870s and 1880s. They attempted to trace evolutionary trees by studying individual development. To do this they needed access to species they considered primitive. Balfour made use of his social networks to aid the school and to collect the specimens they needed for their work. The school has been portrayed as failing in the 1890s when students rejected dry laboratory-bound studies. However, a new generation of researchers who followed Balfour had to travel extensively if they were to obtain the organisms they needed. International travel was popular amongst zoologists and the Cambridge school developed their own extensive networks. A new breed of adventurer–zoologists arose, but because of the school's tenuous position within the university they were unable to equal Balfour's success.
In the last three decades many historians of science have sought to account for the emergence of modern science and technology in sites that did not participate in the shaping of apparently original ideas. They have extensively used a model of the transfer of scientific ideas and practices from centres of scientific activity to a passively receptive periphery. This paper contributes to the discussion of an alternative historiographic approach, one that employs the notion of appropriation to direct attention towards the receptive modes and devices of a local culture. A historiography built around the notion of appropriation deals less with the question of the faithful transfer of scientific ideas than with the particular features of the discourse produced by local scholars as the best way to overcome or conform to the constraints of the receptive culture. The case examined to describe this culturally and intellectually intricate process is the profound transformation undergone by the Newtonian concept of vis inertiae in the work of Eugenios Voulgaris (1716–1806), one of the most important Greek scholars of the eighteenth century.