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58 so u R c e s o f we a p o n sy s T e m s In n o v a T Io n In T h e depaR TmenT o f defense<br />
equipment—ranging from nuclear-powered propulsion systems to sophisticated<br />
electronics technologies for communications and counterme<strong>as</strong>ures. A broad and<br />
diversified knowledge b<strong>as</strong>e in the scientific and engineering disciplines supported<br />
these procurement functions. 69 Like the bureaus of Ordnance and Aeronautics,<br />
R&D in the Bureau of Ships w<strong>as</strong> institutionally and functionally specialized.<br />
The Engineering Experiment Station in Annapolis inspected, tested, evaluated,<br />
and set production and performance standards for equipment manufactured in<br />
industry. Located just outside of W<strong>as</strong>hington, D.C., the David Taylor Model<br />
B<strong>as</strong>in, by contr<strong>as</strong>t, focused on more fundamental studies in hydrodynamics,<br />
nuclear propulsion, and other scientific fields to develop new and more efficient<br />
hull and propeller designs for submarines and surface ships. The burgeoning<br />
field of microwave electronics claimed equal institutional status in the Bureau<br />
of Ships during this period. Developments in electronics heavily influenced ship<br />
design, construction, and operation during the Cold War. In 1945, the bureau<br />
<strong>as</strong>sumed control of the antisubmarine warfare program (Division 6) established<br />
by the wartime <strong>Of</strong>fice of Scientific Research and Development. The bureau<br />
centralized major R&D programs at the Naval Electronics Laboratory in San<br />
Diego and at the Underwater Sound Laboratory in New London, Connecticut.<br />
Wartime innovations in electronics, ranging from the vacuum tube amplifiers<br />
that powered microwave radar sets to the attendant growth of semiconductor<br />
science and technology, revolutionized the design and function of the computer,<br />
communication, navigation, and fire control systems that came to have an<br />
incre<strong>as</strong>ingly prevalent role in ship operation and performance during the Cold<br />
War. By the 1960s, electronic systems accounted for more than one-third of<br />
the cost of naval ship construction. 70 Through its in-house electronics R&D<br />
programs, the Navy expanded its technical knowledge of ship navigation and<br />
detection. Much of this work had originated during World War II, when the<br />
Navy initiated a major effort to improve sonar technologies for antisubmarine<br />
warfare. Essentially the underwater equivalent of radar, sonar employed sound<br />
waves rather than electromagnetic radiation to detect enemy targets and map out<br />
the ocean environment to improve navigation. <strong>To</strong> improve sonar technologies<br />
required more detailed study of the properties and behavior of the transmission<br />
medium itself—in this c<strong>as</strong>e, sea water. Thus a corresponding expansion of<br />
oceanography research accompanied further work on sonar technology.<br />
Although wartime research on sonar and antisubmarine warfare w<strong>as</strong><br />
conducted in many different academic, industrial, and government institutions,<br />
three co<strong>as</strong>tal laboratories handled the bulk of the Navy’s in-house program. The<br />
Navy Radio and Sound Laboratory in San Diego expanded under contract to the<br />
University of California, while Columbia University operated a new laboratory<br />
69 Booz Allen, Review of Navy R&D Management, 7–8, 121.<br />
70 Shiman, Forging the Sword, 61. On the history of the wartime microwave radar program and the<br />
postwar electronics boom that followed it, see Henry E. Guerlac, Radar in World War II, vol. 8 of The <strong>History</strong><br />
of Modern Physics, 1900–1950 (New York: <strong>To</strong>m<strong>as</strong>h Publishers and the American Institute of Physics, 1987);<br />
Robert Buderi, The Invention That Changed the World: How a Small Group of Radar Pioneers Won the Second<br />
World War and Launched a Technological Revolution (New York: Simon and Schuster, 1996); and Louis Brown,<br />
A Radar <strong>History</strong> of World War II: Technical and <strong>Military</strong> Imperatives (London: Taylor and Francis, 1999).