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As the royal agent for British West Florida and an avid naturalist, John Ellis, FRS, took a keen interest in both the scientific and the commercial potential of the nascent colony. This article explores how Ellis and his West Floridian correspondent Bernard Romans illuminate the social and material practices of colonial science. In particular, it builds on recent scholarship to argue that new natural knowledge about West Florida did not simply circulate in the Atlantic World, but was in fact engendered by the movement of objects and ideas through the many circuits of transatlantic natural history and imperial administration. Foregrounding the Atlantic nature of such knowledge also raises questions about the limits of the categories of centre and periphery so frequently employed by historians of colonial science. Colonists such as Romans understood London to be just one centre amongst many and asserted their own epistemological claims, despite the asymmetries of power inherent to colonial science.
Often the truth value of a scientific claim is dependent on our faith that laboratory experiments can model nature. When the nature that you are modelling is something as large as the tallest terrestrial mountain on earth, and as mysterious (at least until 1953) as the reaction of the human body to the highest point on the earth's surface, mapping between laboratory and ‘real world’ is a tricky process. The so-called ‘death zone’ of Mount Everest is a liminal space; a change in weather could make the difference between a survivable mountaintop and a site where the human respiratory system cannot maintain basic biological functions. Predicting what would happen to the first human beings to climb that high was therefore literally a matter of life or death – here inaccurate models could kill. Consequently, high-altitude respiratory physiology has prioritized not the laboratory, but the field. A holistic, environmentally situated sort of science used a range of (often non-scientific) expertise to prove the laboratory wrong time after time. In so doing, Everest was constructed paradoxically both as a unique field site which needed to be studied in vivo, and as a ‘natural laboratory’ which could produce generalizable knowledge about the human (male) body.
Two landmarks in the history of physics are the discovery of the particulate nature of cathode rays (the electron) by J. J. Thomson in 1897 and the experimental demonstration by his son G. P. Thomson in 1927 that the electron exhibits the properties of a wave. Together, the Thomsons are two of the most significant figures in modern physics, both winning Nobel prizes for their work. This book presents the intellectual biographies of the father-and-son physicists, shedding new light on their combined understanding of the nature of electrons and, by extension, of the continuous nature of matter. It is the first text to explore J. J. Thomson's early and later work, as well as the role he played in G. P. Thomson's education as a physicist and how he reacted to his son's discovery of electron diffraction. This fresh perspective will interest academics and graduate students working in the history of early twentieth-century physics.
This essay explores how the scientific community interpreted the discoveries of extinct giant birds during the mid-nineteenth century on the islands of New Zealand and Madagascar. It argues that the Aepyornis of Madagascar was understood through the moa of New Zealand because of the rise of global networks and theories. Indeed, their global connections made giant birds a sensation among the scientific community and together forged theories and associations not possible in isolation. In this way, this paper argues for a closer look at how the creation of science emerged from a world framework that involved multiple sites of discovery and interpretation that continually influenced and reshaped scientific theories. It also stresses the importance of local naturalists in participating in this global exchange of knowledge.
Late eighteenth- and early nineteenth-century anatomy depended upon a variety of visual displays. Drawings in books, particularly expensive, beautiful and elaborately illustrated books that have been the objects of historians' fascination, were understood to function alongside chalk drawings done in classrooms, casual and formalized experience with animal and human corpses, text describing or contextualizing the images, and preserved specimens. This article argues that British anatomists of the late Enlightenment discovered and taught an intelligible, orderly Nature through comprehensive systems of display. These systems trained vision, and, taken as a whole, they can be used to understand a visual culture of science. Displays helped anatomists, artists and natural philosophers learn to see both the tiniest and the rarest of parts and an overall general plan of anatomy and relationship of parts. Each type of display was materially different from the others and each served to perfect human vision for a group of natural philosophers who valued sensory experience – primarily that of vision, but also that of touch – as the basis of learning. Together, these displays allowed the anatomist to see, in all of its dimensions, human nature, frozen in the ordered and unstressed state of fresh death, a comprehensible guide to life and its functions. A pedagogical context of use defined and bound such displays together as complementary parts of a unified project. A system of display stood in for Nature and at the same time represented her ordering by anatomists.