2000 HSS/PSA Program 1 - History of Science Society
2000 HSS/PSA Program 1 - History of Science Society
2000 HSS/PSA Program 1 - History of Science Society
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Jordan Kellman Louisiana State University<br />
<strong>HSS</strong> Abstracts<br />
Jean Mattieu de Chazelles and the Birth <strong>of</strong> Naval <strong>Science</strong><br />
in 17th-Century France<br />
Jean Mattieu de Chazelles (1657-1710) created the first accurate planispheric<br />
projection <strong>of</strong> the world, created the best maps <strong>of</strong> the Mediterranean coast <strong>of</strong><br />
France <strong>of</strong> the seventeenth century, and proposed the first scientific expedition<br />
to find the fabled Southern Continent. Though little known in the history <strong>of</strong><br />
science or maritime history, Chazelles’ career as astronomer at the Paris<br />
Observatory under J. D. Cassini (Cassini I) and as pr<strong>of</strong>essor at the naval<br />
academy <strong>of</strong> Marseilles shows the evolution <strong>of</strong> a new relationship between<br />
science and seafaring, and between observational astronomy and the<br />
improvement <strong>of</strong> the French navy, that was fundamental to the creation <strong>of</strong><br />
institutional science in early modern France. Using Chazelles’ log-books,<br />
letters, maps and manuscript notebooks, this paper will trace his efforts to<br />
take experience he gained and techniques he learned at the Paris observatory<br />
and adapt them to the curriculum at the naval <strong>of</strong>ficer training program at the<br />
port <strong>of</strong> Marseilles. Here Chazelles trained a generation <strong>of</strong> naval <strong>of</strong>ficers in the<br />
techniques <strong>of</strong> scientific observation developed by Cassini, including the<br />
determination <strong>of</strong> longitude by the method <strong>of</strong> Jupiter’s moons and the charting<br />
<strong>of</strong> coastlines using a new method <strong>of</strong> systematic sounding and precise shipboard<br />
surveying. Chazelles hoped to use these <strong>of</strong>ficers as traveling observers to<br />
improve the coastal maps <strong>of</strong> France and the world, as well as to transform the<br />
French navy into an efficient force buttressed by the new techniques <strong>of</strong><br />
observation. The success <strong>of</strong> Chazelles’ efforts put France at the forefront <strong>of</strong><br />
naval cartography, and in spite <strong>of</strong> France’s subsequent colonial and naval<br />
misfortunes at the hands <strong>of</strong> the English, Chazelles’ work confirmed the idea<br />
that scientific research would advance the interests <strong>of</strong> the French Crown and<br />
established scientific training as an integral part <strong>of</strong> naval education.<br />
H<br />
S<br />
S<br />
Dong-Won Kim KAIST<br />
Why Physics?: The Conflicting Role and Image <strong>of</strong> Physics in South Korea<br />
In South Korea, popular appreciation <strong>of</strong> physics’ practical role has not coincided<br />
with the popular view <strong>of</strong> physicists as primarily theoreticians. Following the end<br />
<strong>of</strong> the Korean War in 1953, successive South Korean governments paid special<br />
attention to developing an atomic bomb. The major beneficiary <strong>of</strong> this obsession<br />
for nuclear armament was the South Korean physics community. Despite South<br />
Korea’s desire for atomic weaponry, South Koreans held experimental (or applied)<br />
physics in much lower regard than theoretical physics. In many South Korean<br />
universities, the proportion <strong>of</strong> theoretical physicists was, as still is true today,<br />
excessively high. For example, at South Korea’s most prestigious institution <strong>of</strong><br />
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