Yves Gingras

Academic debates are so frequent and omnipresent in most disciplines, particularly the social sciences and humanities, it seems obvious that disagreements are bound to occur. The aim of this paper is to show that whereas the agent who perceives his/her contribution as being misunderstood locates the origin of the communication problem on the side of the receiver who "misinterprets" the text, the emitter is in fact also contributing to the possibility of this misunderstanding through the very manner in which his/her text is written. In other words, I propose a symmetric approach to understanding misunderstandings: taking simultaneously into account the position of the reader in the scientific field and the structure of the texts of the writers. The paper thus proposes to complement the sociological analysis of controversies in a scientific field with the close reading of texts, a practice usually found in studies of argumentation, in order to explain the occurrence of misunderstandings. The debate surrounding the charge of "relativism" among sociologists of scientific knowledge provides us with a case study to analyse in detail the argumentative context of misunderstanding.

The object of this paper is two-fold: first, to show that contrary to what seem to have become a widely accepted view among historians of biology, the famous 1953 first Nature paper of Watson and Crick on the structure of DNA was widely cited — as compared to the average paper of the time — on a continuous basis from the very year of its publication and over the period 1953–1970 and that the citations came from a wide array of scientific journals. A systematic analysis of the bibliometric data thus shows that Watson's and Crick's paper did in fact have immediate and long term impact if we define "impact" in terms of comparative citations with other papers of the time. In this precise sense it did not fall into "relative oblivion" in the scientific community. The second aim of this paper is to show, using the case of the reception of the Watson—Crick and Jacob—Monod papers as concrete examples, how large scale bibliometric data can be used in a sophisticated manner to provide information about the dynamic of the scientific field as a whole instead of limiting the analysis to a few major actors and generalizing the result to the whole community without further ado

We describe here a series of experimental analogies between fluid mechanics and quantum mechanics recently discovered by a team of physicists. These analogies arise in droplet systems guided by a surface (or pilot) wave. We argue that these experimental facts put ancient theoretical work by Madelung on the analogy between fluid and quantum mechanics into new light. After re-deriving Madelung’s result starting from two basic fluid-mechanical equations (the Navier-Stokes equation and the continuity equation), we discuss the relation with the de Broglie-Bohm theory. This allows to make a direct link with the droplet experiments. It is argued that the fluid-mechanical interpretation of quantum mechanics, if it can be extended to the general N-particle case, would have an advantage over the Bohm interpretation: it could rid Bohm’s theory of its strongly non-local character.

This article uses the methods of citation and network analysis to map the global structure of the intellectual field and its development over time. Through the case study of Mersenne's, Oldenburg's and Darwin's correspondences, we show how looking at letters as a corpus of data can provide a global representation of the evolving conversation going on in the Republic of Letters and in intellectual and scientific fields. Aggregating general correspondences in electronic format offers a global portrait of the evolving composition of the intellectual and scientific scene, its changing foci of interests and the fortune of the intellectual discussions as expressed in cited persons in the letters. Such tools help replace a purely metaphoric use of the term “network” by a visible map of the intellectual relations between people on which well defined calculations of the centrality of the positions of different actors can be made as well as their evolution over time. These techniques provide welcome additions to the tool kit of scholars in an age where the computer and the web offer new ways of mapping and mining the rich store of information contained in intellectual correspondences. ☆ I would like to thank Alain Couillard for the production of the figures and Vincent Larivière and the anonymous referees of the journal for useful comments and suggestions on an earlier version of this paper. Thanks also to the many comments received over the last 10 years as I presented preliminary results of this research at the REHSEIS research center of Université of Paris VII in 1999, the Dibner Institute for the History of Science and Technology at MIT in 2000, at Pietro Corsi's seminar at Oxford University in 2007 and at the History Department of Ottawa University in 2010.