Contemporary scholarship concerning science diplomacy is increasingly taking a historical approach. In our introduction to this special issue, we argue that this approach promises insight into science diplomacy because of the tools historians of science bring to their work. In particular, we observe that not only are historians of science currently poised to chart the diplomatic aspects involved in the transnational circulation of technoscientific knowledge, materials, and expertise. They are ready to bring critical global analysis to an important phenomenon that (...) has too often been treated as a benign diplomacy device deployed by the Global North without equal reference to the Global South. Through cases discussed in the articles of the special issue, however, we see that historically, in the Global South as well as the Global North, science diplomacy has often functioned to mediate the circulation of technoscientific knowledge and materials, and its historical study helps to better illuminate the resulting knowledge-power nexus. (shrink)

The history of the theory of general relativity presents unique features. After its discovery, the theory was immediately confirmed and rapidly changed established notions of space and time. The further implications of general relativity, however, remained largely unexplored until the mid 1950s, when it came into focus as a physical theory and gradually returned to the mainstream of physics. This essay presents a historiographical framework for assessing the history of general relativity by taking into account in an integrated narrative intellectual (...) developments, epistemological problems, and technological advances; the characteristics of post–World War II and Cold War science; and newly emerging institutional settings. It argues that such a framework can help us understand this renaissance of general relativity as a result of two main factors: the recognition of the untapped potential of general relativity and an explicit effort at community building, which allowed this formerly disparate and dispersed field to benefit from the postwar changes in the scientific landscape. (shrink)

The year 1968 is universally considered a watershed in history, as the world was experiencing an accelerated growth of anti-establishment protests that would have long-lasting impacts on the cultural, social, and political spheres of human life. On September 26, amid social and political unrest across the globe, 62 physicists gathered in Geneva to found the European Physical Society. Among these were the official representatives of the national physical societies of 18 countries in both Eastern and Western Europe, who signed the (...) constitution in spite of the political divides of the Cold War. According to the main proponent of the society, Italian physicist Gilberto Bernardini, the success of the initiative was the realization of a dream: the institutional formation of a single community of European physicists, a representation of a culturally unified Europe that he described as a “single highly civilized nation.” The analysis of as yet unexplored archival materials of Bernardini and other protagonists in the establishment of the society has enabled an investigation of the historical development of science diplomacy in two interconnected ways: first, by elucidating how the actors involved, especially those in Western Europe, interpreted their role as diplomats amid particularly turbulent reconfigurations of international political relations; second, by interpreting the attempt to institutionalize transnational scientific networks with the establishment of a non-governmental organization as a tool to influence world political affairs. It will first be shown that the political ideal of a culturally unified Europe was deeply intertwined with the socio-professional interests of a specific community, mostly involved with CERN. I will argue that, in the process of establishing the society, the invasion of Czechoslovakia by Warsaw Pact armed forces led many of the Western physicists involved in this process to reframe the role of the European Physical Society as a tool to diffuse liberal-democratic values and to support political dissidents in Eastern Europe. (shrink)

This white paper outlines the plans of the History Philosophy Culture Working Group of the Next Generation Event Horizon Telescope Collaboration.

Summary This paper analyses documents from several US archives in order to examine the controversy that raged within the US scientific community over Dayton C. Miller's ether-drift experiments. In 1925, Miller announced that his repetitions of the famous Michelson-Morley experiment had shown a slight but positive result: an ether-drift of about 10 kilometres per second. Miller's discovery triggered a long debate in the US scientific community about the validity of Einstein's relativity theories. Between 1926 and 1930 some researchers repeated the (...) Michelson-Morley experiment, but no one found the same effect as Miller had. The inability to confirm Miller's result, paired with the fact that no other ether theory existed that could compete with special relativity theory, made his result an enigmatic one. It thus remained of little interest to the scientific community until 1954, when Robert S. Shankland and three colleagues reanalysed the data and proposed that Miller's periodic fringe shift could be attributed to temperature effects. Whereas most of the scientific community readily accepted this explanation as the conclusion of the matter, some contemporary anti-relativists have contested Shankland's methodology up to now. The historical accounts of Miller's experiments provide contradictory reports of the reaction of the US scientific community and do not analyse the mechanisms of the controversy. I will address this shortcoming with an examination of private correspondence of several actors involved in these experiments between 1921 and 1955. A complex interconnection of epistemic elements, sociological factors, and personal interests played a fundamental role in the closure of this experimental controversy in the early 1930s, as well as in the reception of Shankland's reanalysis in the 1950s. (shrink)

In popular culture, Einstein’s shaggy mustaches and disheveled hairstyle have come to represent the image of physics itself. The most famous physicist of the twentieth century is mainly celebrated as the creator of relativity, intended as both special and general relativity theories. The ubiquitous E = mc2 equation comes hand in hand with pictures of Einstein’s thoughtful wrinkles. Insofar as quantum theory is concerned, Einstein is usually remembered as a strenuous opponent of quantum mechanics who rejected this successful theory on (...) epistemological grounds till the end of his life.In Einstein and the Quantum: The Quest of the Valiant Swabian Douglas Stone—a theoretical physicist specialized in the application of quantum mechanics to solid-state physics—pursues the clearly stated aim of challenging this conventional view. In fact, Einstein made momentous contributions to the quantum theory as the main proponent of novel notions that radically shook the foundat .. (shrink)