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Inner
tower anchorage. . Tower guys
were secured to six massive concrete anchorages, three inner and three
outer. The inner, measured 10’ W by 12’
D by 30’ H and extended 10’ or more into the ground; the outer, 7’ W by 10’ D
by 15’ H, extended 8’ into the ground. (Image 3)
Constructing
the tower anchorages. Workmen mix and pour concrete by hand into wooden forms for
inner anchorages in late summer of 1911.
Horses used to hoist buckets of concrete by means of a pulley
arrangement. (Image 4)
Tower
base and station building. The 40’ x
80’ station building contained all apparatus for sending and receiving. Station superintendent Ludwig Battermann’s
1906 Pope-Toledo auto is occupied by station operator Fred Stoye and family. (Image 5)
Tower base close-up. The main tower rested on a ball & socket
joint at its base, which was supported and insulated from ground on three glass
insulators. Three concrete piers, approximately six feet high, were provided
for lifting and supporting the tower on jacks to facilitate replacement or
repair of the joint or insulators. (Image 6)
Battery room. . Originally, all station apparatus operated
from a 220 volt, 600 ampere-hour, 120 cell storage battery that filled an
entire 22’ by 37’ room. Battery was
kept charged by a motor-generator operating from
station 440 volt primary power (Image 7)
Generator
room. . Battery/generator switchboard and 60 kva 500
cycle motor generator for the 35-kW transmitter. The generator fed a 60,000-volt output spark
transformer located in the transmitter room.
The transmitter was keyed by a relay in the transformer’s primary
circuit. (Image 8)
Transmitter
room. . If the rope barrier continued to the back wall
instead of turning to the right, the 35-kW output quenched gap spark
transmitter would be fully to its left, the 5-kW "small set" used for
marine communications to its right. Note
the banks of Leyden jar condensers along wall at left. (Image 9)
Sending /
receiving positions. Located
in soundproof room, enabling the feeble transatlantic signals to be heard on
period receivers using crystal detectors. In late 1914, reception improved
dramatically with use of regenerative receivers, Atlantic Communication Co.
becoming the first licensee of Armstrong’s newly patented receiving circuit.
(Image 10)
Ship-to-shore
operating position. Operator at
1.5-kW set, which replaced the 5-kW as the “small set” used for ship-to-shore
communications with vessels of the Hamburg-American and North German Lloyd
lines. (Image 11)
100
kW Joly-Arco high frequency alternator. In
early 1915, addressing the need for improved wartime communications
reliability, a new wing was added to the station building and a 100 kW
Joly-Arco high frequency alternator transmitter installed to replace the 35-kW
spark transmitter. (Image 12)
Erection
of 500-foot Rendahl tower. As part of the HF alternator upgrade, 500-foot
towers to the east and west of the main tower were added. Named after their
inventor, the towers were assembled on the ground from hundreds of short pieces
of steel tubing. Each full-length
tower was then rotated into its upright position utilizing a 200-foot long
structure functioning as a gin-pole.
Later, six additional towers were erected: five guyed 220-footers and
one self-standing 200-footer. (Image 13)
Marine
encampment. At the outbreak of WWI, the Sayville station
became a vital link with Germany. To preserve U.S neutrality, navy censors were
sent to the station to assure that no “unneutral” messages were exchanged. On April 20, 1916, a threatened break in
diplomatic relations with Germany
resulted in detachment of 21 fully equipped marines to the station. TheU.S.
finally commandeered the Sayville station, expelling all Germans, shortly
before its April 6, 1917 declaration of war on Germany (Image 14)
Aerial
view of station site looking north. Although this 1930 painting includes some buildings not existent
when site occupied by Telefunken, it provides an excellent idea of site
layout. Bounded on the south by the
LIRR, entrance to the site was made at the southeast corner. (Image 15)
Ludwig
A. Battermann (1885-1975). Shown here atop the 200-foot south tower during construction
in April of 1916, Battermann arrived from Germany
on March 20, 1912 to assist in setting up the Sayville
station. He remained as superintendent
until the station was taken over by the government upon our entry into WWI.
After the war, he went on to distinguish himself at RCA Laboratories at Rocky
Point, where he became Supervisor of the Experimental Department, Building
10. The inventive Battermann received seven
patents.
A small album of snapshots he had taken plus others of theSayville station were left to his son, Norbert, through
whose generosity we have our first glimpse of the station’s earliest days.
For the next chapter of the Sayville station story, go to
“US Naval Radio Station – Sayville,
NY.”
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