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UNCLASSIFIED TM NO.306 
ET SS EDT 


LAGRANGIAN CURRENT MEASUREMENTS IN THE 
NORTHEAST PROVIDENCE CHANNEL AND THE 
TONGUE OF THE OCEAN, BAHAMAS) 

‘14 FEBRUARY TO 6 MARCH 1963 
PRELIMINARY REPORT 


De (re 


NEWPORT, RHODE ISLAND 


xa . ¢3 ONCLASSIFIED 


UNCLASSIFIED 


TM No. 306 


U. S. NAVAL UNDERWATER ORDNANCE STATION 
NEWPORT, RHODE ISLAND 


TECHNICAL MEMORANDUM 


LAGRANGIAN CURRENT MEASUREMENTS 
IN THE NORTHEAST PROVIDENCE CHANNEL 
AND THE TONGUE OF THE OCEAN, BAHAMAS 
14 FEBRUARY TO 6 MARCH 1963 © PRELIMINARY REPORT 


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Prepared by: <Ld Coase 


MBL/WHO! 


MOON 


September 1963 Technical Director 


W. C. TAYLOR 
Captain, USN 
Commanding Officer 


Task Assignment No. 
RUTO-3E-000/219 1/SF-099-03-02 and 


ASW Oceanographic Research RU22<2E=000/219 1ROO4=203201 UNCLASSIFIED 


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TM No. 


FOREWORD 


In the Atlantic Undersea Test and Evaluation Center (AUTEC) 
development program, the Naval Underwater Ordnance Station (NUOS ) is 
responsible for the design, installation, test, and evaluation of an 
underwater weapons tracking range. In order to provide accurate 
tracking data on test vehicles, the information obtained by the 
underwater instrumentation must be correlated with the oceanographic 
environment. NUOS, in a cooperative effort with the Woods Hole 
Oceanographic Institution (WHOL), obtained water current data during 
February and March 1963, using the parachute drogue system in the 
Northeast Providence Channel and Tongue of the Ocean, Bahamas » 


This preliminary report describes the purpose of the cruise, 
the drogue system, and the type of navigation used in tracking 
the drogues. The raw data are included in the Appendix. Analysis 
of the data will be the subject of a subsequent report. This work 
was accomplished under BUWEPS Task Assignment Nos. RUTO=-3E-000/219 
1/SF-099-03=02 and ASW Oceanographic Research RU2202E=000/219 
1/ROO4-03-01. 


alal 


306 


T™ No. 306 


ACKNOWLEDGMENT 


The able assistance of Mr. Seward Johnson, owner of the OCEAN 
PEARL, Mr. R. Schlichtenmaier, Captain of the H.J.W. FAY, and their 
crews helped make this program a success, and is gratefully acknowledged. 
Special thanks are due Mr. John Bruce of the Woods Hole Oceanographic 


Institution for sharing the responsibility and offering many helpful 
suggestions. 


alata 


TM No. 306 


SUMMARY 


The Naval Underwater Ordnance Station is responsible for the design, 
installation, test, and evaluation of an underwater weapons tracking range 
for the Atlantic Undersea Test and Evaluation Center (AUTEC). As this 
work requires a knowledge of the environmental factors affecting deep 
water tracking, a program was established to gather additional data on 
the water currents in the Northeast Providence Channel and selected areas 
in the Tongue of the Ocean, Bahamas. 


Water current measurements were taken during February and March 1963 
by tracking parachute drogues along five transects in the areas selected. 
The drogues were placed at various positions and depths (from surface to 
1500 meters) along each transect, and were tracked for periods of one to 
four days. Although it had been planned to track each drogue for a longer 
period of time (three to five days), the weather (high winds) proved to 
be a limiting factor. 


A total of 27 drogues (aa. identical in construction) were tracked, 
and over 500 position fixes were taken. When the surface floats were 
recovered, a tension was noted on the suspension wire prior to cutting. 
This indicated that the parachute was still open and that the run was 
successful. 


Two vessels were used to track the drogues which made it possible 
to: make a greater number of observations during the time allocated for 
the program; obtain the first synoptic, drogue water current measurements 
taken in the area; and acquire the quasi-continuous measurements of the 
eurrents that were desired in order to determine meaningful flow patterns. 


Decca Hi-Fix (a short range, high precision, position-fixing system) 
was used to determine the positions of the surface floats relative to 
known landmarks at various intervals along the drogue tracks. Standard 
navigation radar fixes were taken simultaneously with the Hi-Fix readings 
to provide back up information, and to position the surface floats if the 
Hi-Fix system failed or the range was too great. However, the Decca Hi-Fix 
position fixes were quite adequate for tracking the drogues throughout the 
areas covered. 


Although information on the water characteristics at the time and 
place each measurement was taken would be valuable, no effort was made 
to assess these characteristics since the time involved would interfere 
with the planned program, and hydrographic station data are available 
for the areas of interest. These data cover all months over a period of 
years and could be used in conjunction with the water current data obtained 
to provide a more complete analysis. 


iv 


TM No. 306 


Since this is a preliminary report, only raw data and descriptions 
of the equipment and procedures are presented. A subsequent report will 
include a final analysis of the data in an attempt to answer the following 
questions: 


1. Can the motion of the water in the Northeast Providence Channel 
be traced to the motion of the water in the Tongue of the Ocean (TOTO) 
(or vice versa)? 


2. What is the "mixing length" of the predominant eddies in TOTO? 


3. What is the general magnitude and intensity of the horizontal 
and vertical current shear in the central region of TOTO? 


4. To what extent (and time scale) are turbulent shears (normal 
to the bank walls) causing mixing and transport of bank water into the 
AUTEC region? 


5. How is the wind drift pattern related to tidal data? 


T™ No. 306 
INTRODUCTION 


Since accurate tracking of test vehicles in the deep water range 
at AUTEC will depend in part on correlating the effects of the oceanoe= 
graphic environment with information obtained by the underwater instrumenta- 
tion, additional data on the environmental factors involved were required. 
To learn more about one of these factors, parachute drogues were set and 
tracked during the period 14 February to 6 March 1963 in the Northeast 
Providence Channel and selected areas of the Tongue of the Ocean, Bahamas. 


The purpose of this program was to gather data on the water currents 
which could be used in an attempt to answer the following questions: 


1. Can the motion of the water at the Northeast Providence Channel 
be traced to the motion of the water in Tongue for vice versa)? 


2. What is the "mixing length" of the predominant eddies in The 
Tongue? 


3. What is the general magnitude and intensity of horizontal and 
vertical current shear in the central region of the Tongue? 


4. To what extent (and time scale) are turbulent shears (normal 
to the bank walls) causing mixing and transport of bank water into the 
AUTEC region? 


5. How is the wind drift pattern related to tidal data? 


Two vessels were used during the program. The OCEAN PEARL (Figure ab) 
is a privately owned ketch capable of speeds up to 9 knots under power. 
This vessel, used by the Woods Hole Oceanographic Institution (WHOT) , was 
under the direction of Mr. John Bruce, WHOI. The H.J.W. FAY (Figure 2) 
is a research vessel capable of speeds up to 18 knots. This vessel, on 
contract to the Naval Underwater Ordnance Station (NUOS) from Marine 
Acoustical Services, Inc., Miami, Florida, was under the direction of 
Mr. G. S. Cook, NUOS. Both vessels were equipped with Decca Navigation 
radar and standard ship-to=shore transceivers. Decca Hi-Fix receivers 
were temporarily installed on each vessel and were used in combination 
with the radars to track the drogues. Thus, if one system failed, tracking 
could be continued with the other system alone. 


With two vessels tracking their respective drogues simultaneously at 
various distances from each other, it was possible to make synoptic current 
measurements (using drogues) for the first time in the area. In addition, 
the program was not interrupted when one vessel had to return to port. 

This was important, since quasi=continuous measurements were desirable in 
order to determine meaningful flow patterns. 


T™ No. 306 


The OCEAN PEARL 


FIGURE 1 


FIGURE 2 


T™ No. 306 


The H. J. W. FAY 


T™ No. 306 


The areas covered, the equipment used, and the methods employed to 
obtain the water current measurements are described in this preliminary 
report. In addition, the raw data are presented in Appendix A. A 
subsequent report on this program will include an analysis of the data 
in an effort to answer the previously posed questions. 


AREAS 


For the purpose of this program, five areas were selected, and 
water current measurements were taken along transects in these areas 
(See Figure 3). 


The first transect was positioned between Northern Eleuthera 
(Egg Island) and Great Abaco Island (Hole-inethe-Wall). This transect 
was selected in order to define water motion at the entrance to Northeast 
Providence Channel. 


The second transect was positioned along a line bearing 343°r from 
Old Fort Point (New Providence Island), and terminating east of the Berry 
Islands at the 100 fathom curve. 


The third transect was positioned in the eastern part of TOTO (east 
of the longitudinal axis and extending eastward toward the bank along 
latitude 24° 4o' Nn). 


The fourth transect was positioned parallel to the bank about 
three miles east of Middle Bight, Andros Island. Only three drogues 
(set at a depth of 10 meters) were tracked, but observations were taken 
at much shorter time intervals than along the other transects. This 
experiment was conducted in an attempt to examine small scale turbulent 
fluctuations in the surface flow. It should be noted that the drogues 
set along the fourth transect were tracked simultaneously with the 
drogues set along the third transect. 


The fifth transect was positioned in the western part of TOTO 
(west of the longitudinal axis and extending westward toward the bank 
along latitude 2° 15' N). The drogues set along this transect (after 
tracking was completed along the fourth transect) were also tracked 
simultaneously with the drogues set along the third transect. 


A total of 27 drogues were set and tracked along these transects, 
and 19 of the surface floats were recovered. The drogues were placed 
at predetermined depths to provide information on the character and 
velocity of the water currents throughout the water column. The number 
of drogues tacked along each transect, the depth at which each drogue 
was set, and the total tracking time per drogue is tabulated in Table l. 


T™ N . 306 


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Transects Where Drogue Current Measurements Were Taken 


FIGURE 3 


TM No. 306 
Table 1. Drogues, Depths, and Tracking Time 


Drogue Total 
Identifis Tracking 
cation Depth Time 
(Meters) (hours) Remarks 


Surface recovered 
Surface recovered 


Surface recovered 
Surface recovered 
Surface recovered 


OrRPNI FP Wwe 


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Surface recovered 
Surface recovered 
Surface recovered 
Surface recovered 


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Surface recovered 


Surface recovered 
Surface recovered 
Surface recovered 
Surface recovered 


Surface recovered 
Surface recovered 
Surface recovered 


Surface recovered 
Surface recovered 


TM No. 306 
DESCRIPTION OF THE DROGUES 


Parachute drogues were designed that would have a large drag area 
(approximately 45 square meters) at the depths where the water currents 
would be measured, as contrasted with a drag area (approximately 3} 
square meters) where the surface float would be exposed to the surface 
water and the wind. At the same time the float and structure of the 
drogue above the water was designed to be clearly visible at the surface. 
A diagram of this design, which is comparable with that reported by 
Ref. 1, is shown in Figure’ 4. 


The surface floats were constructed of styrofoam (3 feet long, 
2 feet wide, and 1 foot thick) covered with 3/8-inch marine plywood, and 
ballasted by a 50=-pound weight suspended 8 feet below the float. Each 
float supported a mast which extended approximately 24 feet above the 
water and consisted of a 20-foot length of aluminum pipe and a 15-foot 
bamboo pole. 


The aluminum pole, with the 50-pound ballast weight mounted on 
the lower end, was positioned through a center hole in the float, and was 
held in place by a clamp and shackle combination above the plywood 
cover and by a 1/4-inch manila line bent around the float and secured 
through the shackle (see Figure 5A). 


The bamboo pole was fastened to the upper end of the aluminum 
pole with hose clamps. Two flags, a wire mesh radar reflector, and 
a blinking light were attached to this pole as shown in Figure }. 

The upper flag, used for locating the drogue, was about 1.0 by 1.5 
meters, and international (day-glo) orange in color. The lower flag, 
used to identify the individual drogues, was a standard Navy type 

Signal flag. The blinking light was fabricated using a socket, flashing 
light bulb (GE type 407), lamp cord and 6-volt hand lantern=-type battery. 
The lights normally gave no trouble, but occasionally they stopped 
flashing after a day or two of operation because of breakdown of the 
bimetallic strip in the bulb. Batteries and bulbs were replaced at 

the termination of each transect. The longest period of operation 

was approximately 4 days. 

A harness of 1/4-inch, stainless, 7x19 wire rope was run through 
the center hole in the float alongside the aluminum pole. A loop was 
fashioned at each end, and the wire rope was attached to the ballast 
weight below the float and to the aluminum pole above the plywood 
cover (see Figures 4 and 5A). The upper loop was used in retrieving 
the floats, and the parachute suspension wire was attached to the 
lower loop by means of a splice=type fitting as shown in Figure 5B. 
Any strain on the harness was transferred to the float by a 1/4-inch 
cable=clamp and a 1/4-inch shackle resting on the 3/8einch marine 
plywood cover above the mast hole. 


T™ No. 306 


BLINKING 
LIGHT RADAR REFLECTOR 
MM INTERNATIONAL ORANGE 
aa / SIGNAL FLAG 
i 
SIGNAL FLAG (FOR 1.0.) 
BAMBOO POLE i 
(IS FT.) HOSE CLAMPS 
: 7 a uniNOM POLE (20FT.) 
BATTERY 
6 THREAD 4 
SERED , STAINLESS WIRE (—- IN.) 


SIN. MARINE PLYWOOD 


“ok 
2 || 
a 


SUSPENSION WIRE A 
(0.058 IN. DOUBLE p 
GALVANIZED) 


STYROFOAM 
(QF XOSFile Xl Fate) 


50 LB. WEIGHT 


STAINLESS WIRE (TIN) 


PARACHUTE (28 FT. DIAMETER) 


CHEEK CLAMP 
5FT_LYy 


SJL 


L-— 50 LB. WEIGHT 


The Parachute Drogue Design 
FIGURE 4 


TM No. 306 


LOOP FOR RETRIEVAL 
+n. STAINLESS WIRE ROPE 
PIPE CABLE CLAMP-SHACKLE COMBINATION 


3 IN. MARINE PLYWOOD 


STYROFOAM FLOAT 


6 THREAD LINE 


ATTACHED TO LOWER 
LOOP ON STAINLESS WIRE 


(See Fig. 5A) 
LOWER LOOP 
ATTACHED TO Lin, THIMBLE 
SPLICE (See Fig. 5B) 8 e. 


NICROPRESS FITTINGS 


0,058 IN, DOUBLE 

GALVANIZED WIRE NOTE: WIRE RETURNED 
THROUGH TWO 
FITTINGS. 


SUSPENSION WIRE 
SEATED IN 
GROOVE 


TO 
PARACHUTE 


TO 
50 LB. WEIGHT 
C. 


Techniques for Securing Suspension Wire 


FIGURE 5 


T™ No. 306 


After the surface float was launched, the specified amount of wire 
was payed-out through an indicating meter wheel while the vessel steamed 
slowly up wind. When the proper amount of wire was payed=-out, the cheek 
clamp (Figure 5C) was attached to the suspension wire. The parachute 
and a 50=pound weight were also secured to the cheek clamp (see Figure }) 
and the suspension wire was cut. The weight was then lowered over the 
side until the parachute shrouds carried the full weight. At this time 
the weight was released and the parachute was pulled downward by the 
weight. (The parachute is payed-out in the reverse manner to that of 
a parachute in the air i.e., the shrouds are payed out first, the canopy 
being the last to enter the water.) In all cases, it was possible to 
see the parachute open under water. 


All of the drogues used during this program were identical in 
construction. 


NAVIGATION AND TRACKING 


The positions of the surface-floats relative to known landmarks 
were determined with the Decca HieFix System (Decca Navigator System, 
Ltd., London), and an auxiliary fix was taken with navigation radar. 


The H.J.W. FAY was equipped with a Decca 404 navigation radar 
which was specified to have a frequency of 9320-9480 me/s and a display 
discrimination of 20 yards. On shorter range scales (range scales in 
nautical miles are 0.75, 1.5, 3, 6, 12, 2h, 48), the range ring accuracy 
is 13 percent of the maximum of the range used or 75 yards, whichever 
is the greater. The variable range marker accuracy is better than 
1 percent of the range ring accuracy. The bearing resolution is 41° 
(Ref.2). The OCEAN PEARL was equipped with a Decca 303 Navigation 
Radar which has characteristics similar to the Decca 404 aboard the 
H.J.W. FAY. The ranges most used were 6, 12, and 24 nautical miles. 
The Decca HieFix is a high precision, lightweight, electronic position- 
fixing system, intended primarily for use at short ranges. The system 
is designed for hydrographic, geophysical, and other surveys in which 
an accuracy of less than one meter is required, and which demand the 
use of an electronic surveying system that is readily portable, simple 
to operate, and quick to install. Decca HieFix receivers were 
temporarily installed on both vessels, and were used independently 
but in conjunction with the radars. The principle of the Hi-Fix 
can be described in the following manner. A set of stationary, 
standing electromagnetic, wave patterns are generated by radio 
transmitting stations. These patterns form coordinates in terms of 
which a radio receiver (carried by the user) provides continuous 
indication of its position with respect to the transmitting stations. 
If the positions of the statiorm are known, the signal received by the 
receiver may be converted into geographical coordinates by reference to 
a transformation chart. Computers can also be used for this conversion.(Ref.3). 


T{ No. 306 


The Decca Hi-Fix "net" in the Tongue of the Ocean, shown on Figure 3, 
consists of three land based transmitting stations. (Two slave stations in 
conjunction with the common master station.) A single pair of stations 
produces a pattern which, being dependent on the distance AB (Figure 6A) 
and on the frequency used, can occupy calculable and highly stable 
positions on the earth's surface. Therefore, from the point of view 
of an observer carrying a phase comparison device (Receiver), 
the pattern constitutes a set of navigational position lines taking 
the form of a family of hyperbolae focussed on the two transmitters. 


To enable the observer to fix his geographical position with 
reference to the ground stations, two sets of position lines are required. 
These are provided by a second hyperbolic pattern generated by Station C 
(Figure 6B) in conjunction with the common Master Station A. The receiving 
(phase-comparison) apparatus is duplicated to work with the two sets of 
coordinates, and the observer fixes his position at any instant by trans- 
ferring the readings of the two phase meters to a map on which numbered 
lanes of the two patterns are printed. 


Typical operating distances between HieFix transmitters and receivers 
are between 5 and 35 miles, but the receiver can be used close to the 
transmitting station without loss of accuracy, or at a maximum offshore 
range of about 100 miles, if the radiated power from the stations is 
increased. The radiated power of the transmitting stations in TOTO is 
sufficient to ensure a working range normally in excess of 50 miles 
over seawater. During this program, HieFix was used at a distance of 
approximately 110 nautical miles (Transect 1, Figure 3) from the farthest 
slave station with fair reliability. From a nomogram it was calculated 
that the lane width along Transect 1 was from 1700 to 1900 meters. 

Since the receivers are capable of reading to 1/100 of a lane, this 
provides an accuracy in the order of 17 = 19 meters. 


A series of Decca transformation charts were aved table OTe TOTO 
area to plot the positions of the drogue floats between 23° 50' and 2° 
50' north latitude. Although there was no chart coverage for the transect 
in the Northeast Providence Channel, the Naval Oceanographic Office has 
a computer program for converting Decca coordinates to latitude and 
longitude, and this was used to plot the positions of the floats in 
these areas. 


In general, the Decca Hi-Fix System, backed up by radar, was quite 
adequate for tracking the drogues, and the position fixes obtained were 
satisfactory. 


MASTER AO OB SLAVE 


A Set of Hyperbolic Position Lines Generated by 
Synchronized Transmissions from Stations A and B 


FIGURE 6A 


Hyperbolic Grid Generated by 
Slave Stations B and C Locked to Master Station A 


FIGURE 6B 


T™ No. 306 


REFERENCES 


Volkmann, Gordon, John Knauss, & Allyn Vine, 1956: The Use of 
Parachute Drogues in the measurement of subsurface ocean currents. 
Trans. Amer. Geophys. Union, 37, 5/3 = 77. 


Marine Acoustical Services, Inc., Vessel and Technical Services 
for Research in Underwater Acoustics and Oceanography. 1962. 
Copy No. 832 pp. Fe2,3. 


The Decca Navigator System as an aid to Survey. (Issue 5) 
The Decca Navigator Company, Limited, London, England. 


cue ae 


T No. 306 


APPENDIX A 


The raw data for determining the velocity of the water currents 
along various transects in the Northeast Providence Channel and 
sections of TOTO, Bahamas, obtained by tracking parachute drogues 


in these areas during February and March 1963, are presented in 
tabular form. 


T™ No. 306 


TRANSECT 1 


DROGUE Z Depth: 1500 Meters 


Time LATITUDE (N) LONGITUDE (W) Consecutive 
Date (EST) deg | min | sec deg |min | sec Fix. No. 


T No. 306 


TRANSECT 1 


DROGUE Y Depth: 1500 Meters 


Time LATITUDE (1) LONGITUDE (Ww) Consecutive 
Date (EST ) deg |min| sec deg |min| sec 


As3 


T™ No. 306 


TRANSECT 1 


DROGUE X Depth: 1500 Meters 


Time LATITUDE (N) LONGITUDE (W) Consecutive 
Date (EST) deg | min| sec deg | min| sec Fix. No. 
14 Feb 41 02 4 29 


Aa4 


T™ No. 306 


TRANSECT 1 
DROGUE V Depth: 10 Meters 
Time LATITUDE (N) LONGITUDE (W) Consecutive 
Date (EST) deg |min | sec deg | min { sec Fix. No. 
O77 |00 =) 07. 567 hh 
076 | 59 | 52.543 45 
076158 | 54.233 46 
076157 | 33.624 LT 
_076 Do || Sis ALO sb 
Ore: 2D. "|| Sislepife) 4g 
076158 | 33.524 50 
Ona O38 17232030 pu: 
O77 1.05 | 26.295 52 
O77 | O7 | 08.673 53 
One Hey a palSyqrehal 54 
Ona Ooms ia1.300) 55 


A-5 


T™ No. 306 


TRANSECT 1 


Depth: 600 Meters 


Time LATITUDE (N) LONGITUDE (W) 
Date (EST) deg |min| sec deg | min| sec 


TM No. 306 


TRANSECT 1 


DROGUE 3 Depth: 200 Meters 


Time LATITUDE (N) LONGITUDE (WwW) Consecutive 
Date EST) deg |min| sec deg |min | sec 


T™ No. 306 


TRANSECT 1 


DROGUE 8 Depth: 600 Meters 


Time LATITUDE (N) LONGITUDE (W) Consecutive 
Date (EST) deg |min| sec deg | min| sec Fix. No. 
F 81 


A=8 


™ No. 306 


TRANSECT 1 


Depth: 200 Meters 


LONGITUDE (W) Consecutive 
deg | min sec Mbaoigh) Nols 


Ae9 


T™ No. 306 


TRANSECT 2 


DROGUE 1 Depth: 1500 Meters 


Time LATITUDE (N) LONGITUDE (W) Consecutive 
Date (EST) deg |min [sec deg | min sec Fix. No. 


A=10 


T No. 306 


TRANSECT 2 
DROGUE G Depth: 600 Meters 
Time LATITUDE (N) LONGITUDE (W) Consecutive 
Date (EST) deg |min sec deg | min sec Fix. No. 
21 Feb 15.645 O77 | 35 | 58.600 122 
02.531 O77 | 35 | 41.829 123 
37.049 O77 | 36 | 06.816 124 
26.790 Ovae | stew |) abaeyte 125 
26.877 ONFTE We; “Wr alehsier/(e) 126 
er 33.300 __ ms 30.474 HAS 
22 Feb 35.814 ONAe | sien. |) Sires} 128 
46.431 OneTe | sir 1) ists arent 129 
16.402 O77 | 37 | 00.984 IZ 
20.927 OMe etre | (olka ea Sa 
00.208 _ Ore | sit 06.350_ Rene | 
23 Feb 45.948 Ovi t lee9eOne 133 | 
50.970 O(a 38) {i512 956 134 | 
BsSsis) |) OME SIS) |) Gece dsp | 
2h Feb 27.225 O77 | 40 40.981 _ som a 
25 Feb 03.541 Oi 358 e042 130 IES HT | 


Aell 


T™ No. 306 


TRANSECT 2 


DROGUE M Depth: 200 Meters 


Time LATITUDE (N) LONGITUDE (Ww) Consecutive 
Date (EST) deg |min| sec deg {min| sec Fix. No. 


Asle 


T™ No. 306 


TRANSECT 2 


DROGUE F Depth: 10 Meters 


Time LATITUDE (N) LONGITUDE (W) Consecutive 
Date (EST) deg |min sec deg |min sec Iiabe5 "INO 


A=13 


T™ No. 306 


TRANSECT 2 


DROGUE R Depth: 200 Meters 


Time LATITUDE (N) LONGITUDE (W) Consecutive 
Date (EST) deg {min sec deg |min sec Fix. No. 


Aw14 


T No. 306 


TRANSECT 2 


DROGUE T Depth: 600 Meters 


Time LATITUDE (N) LONGITUDE (W) Consecutive 
deg {min See deg | min Sec 
1138 025 115 | 34.882 O77 | 29 | 05.987 188 
1153 O25elMiGwa|l5. O60 Offa 2Oy eS e025 189 
1415 025 |16 | 02.504 O77 29 | 437 190 
1432 025 |15 | 56.985 O77 | 29 | 13.540 191 
1509 O25 io SOsise O77 | 29 | 10.302 192 
1639 025 115 | 49.559 077 | 29 | 10.844 193 
1722 025 115 | 42.993 O77 | 29 | 12.098 194 
1805 025 115 | 46.123 O77 | 29 | 11.740 195 
1859 ©25: 115) 1"30:.862 ON eon 22979 196 
1921 025 115 | 33.653 OnMiee9 bls 163 197 
2016 O25 "5 {P7632 077 | 29 | 15.993 198 
2045 025 |15 | 18.255 On |) 2%). 1) UR eet6) 199 
as es) ae 6 oo on 200 
2145 @©25u (15) 5.200 Ot 129) 1 156269 201 
2218 025 |15 | 03.065 O77 | 29 | 16.654 202 
2328 025 |15 | 03.875 O77 | 29 | 20.056 203 
0010 025 |14 | 52.900 One || eer” ile selets} 204 
0147 O25 114 || 42.996 Op ee) 1) tons 205 | 
o222 025 {15 | 13.552 OVA || eles 1 Siekaoulye 206 
0323 025 (15 108.358 Oi |:29) B38 89 207 
0625 O25 Sa hOSeoua O77 | 29° 157.745 208 | 
(Oa 025 115 | 01.684 O77 }29 155.944 209 
0728 025 115. | 00.331 O77 | 
0758 025 115 |01.956 O77 | 
0933 Oey || abs) ab ifs (Ao) OTT 
OU Opty sy) | aller tem” |, Orel 
1418 025 115 108.099 | O77 
1815 O25 sh. 196 O77 
2017 O25 alee OOO Pal MOna( 
0346 025 |14 | 02.056 O77 
0737 O25 | aIKOee lO um be Olay 


145i oe) (ue | ees | Or 


1428 025 16 49.965 _| O77 


| 1028 ©25: |G. 56.0138" 1077, 


Ael5 


T™ No. 306 


TRANSECT 2 


DROGUE SR Depth: 1500 Meters 


Time LATITUDE (N) LONGITUDE (Ww) Consecutive 
Date (EST) deg | min sec deg | min sec Fix. No. 


Awl6 


T No. 306 


TRANSECT 2 


DROGUE 3 II Depth: 10 Meters 


Time LATITUDE (N) LONGITUDE (W) Consecutive 
Date (EST) deg |min| sec deg | min| sec Fix. No. 


Aol 


T™ No. 306 


TRANSECT 3 


DROGUE R II Depth: 200 Meters 


Time LATITUDE (N) LONGITUDE (W) Consecutive 
Date (EST) deg |min{ sec deg {min; sec Fix. No. 


A-18 


T™ No. 306 


TRANSECT 3 


DROGUE 3 III Depth: 1500 Meters 


Time LATITUDE (N) LONGITUDE (Ww) Consecutive 
Date (EST) deg ; min sec deg {min sec Fix. No. 


Ae19 


T™ No. 306 


TRANSECT 3 


DROGUE T II Depth: 1000 Meters 


Time LATITUDE (N) LONGITUDE (WwW) 
Date (EST) deg ;min| sec deg jmin| sec 


A=20 


T™ No. 306 


TRANSECT 3 


DROGUE S.R. II Depth; 1000 Meters 


Time LATITUDE (N) LONGITUDE (W) Consecutive 
Date (EST) deg | min{ sec deg |min| sec Hioa Noe 


Ae2l 


T No. 306 


TRANSECT 4 


Time LATITUDE (IN) LONGITUDE (W) Consecutive 
Date (EST) deg |min|{ sec deg |min| sec Fix. No. 

| 28 Feb | 1319 (Oe | fehl il as}o able) 
1349 024 |21 | 27.488 
1417 024 }21 | 43.624 
L445 024 | 21 | 53.568 
1513 024 | 22 | 08.587 
1538 024 | 22 | 19.865 
-e O21 ern 328336 
1635 024 | 22 | 48.214 
1708 @21F | 23 OS. (67. 
L741 024 | 23 | 22.726 
1812 024 | 23 | 38.015 
1839 024 | 23 | 51.735 
1909 024 |} 2h | 05.482 
1939 024 | 2h | 19.013 
2008 024 | 24 | 30.567 
2038 024 }2h 143.149 
2104 024 | 24 | 50.607 
2200 024 |}25 | 04.407 
2233 024 125 | 10.588 
2301 (oye ele aloyacivAll 
2332 024 | 25 | 20.110 
1 Mar | 0005 024 |25 | 24.983 
oo4e 024 |}25 | 28.016 
0120 024 |25 | 32.262 
0158 024 | 25 | 34.967 
0247 024 |25 | 37.581 
0345 024 | 25 | 37.937 
O447 024 |25 | 29.532 
O546 024 |} 25 | 34.379 
0656 024 |25 | 30.768 
0805 024 | 25 | 28.563 
0920 024 | 25 | 26.798 
1042 024.125 | 26.531 
1159 024 |}25 | ah. 3hh 
1530 024 | 22 | 06.680 


Aee2e 


DROGUE 


Time 
Date (EST) 


28 Feb 


1 Mar 


K 


1146 
4216 
1241 
1336 
1404 
1432 
1500 
1526 
1552 
1622 
1649 
ILT@2) 
1754 
1824 
1852 
1924 
ODS 
2024 
2050 
2145 
2217 
22s 
2316 
2347 


0022 
0100 
0138 
0222 
0318 
O13 
0515 
0525 
0731 
0843 
1000 
1119 
12h5 


T™ No. 306 


TRANSECT 4 
Depth: 10 Meters 

LATITUDE (N) LONGITUDE (Ww) 
deg jmin gece deg ; min sec Bax. Nor. 
024 |22 | 14.766 077 | 36 | 28.278 269 
O2TMN22 N25 a 329 ONG 136. 19322380 270 
024 22 | 33.92h OTT | 36 | 35.780 271 
Oe i eles | eyey alatal O77 | 36 | 42.504 272 
024 123 | 02.052 O77 | 36 | 47.260 273 
024 | 23 | 11.285 O77 | 36 | 50.882 274 
024 123 | 20.135 O77 | 36 {| 54.650 275 
024 |23 | 28.489 O77 | 36) ol 58.197 276 
Oe) 23) 11 36.766 O77 | 37 | 02.340 Oui 
02k (23 | 45.937 O77 | 37 | 06.174 278 
024 }23 | 55.174 Oia sie On ene 279 
02h }2h | 04.939 (ONATe (ostre 1 alee sigios 280 
024 [2h | 13.534 O77 | 37 | 16.598 281 
024 |2h | 20.417 ONE SHE Ieee) 282 
02h } 24 | 27.700 OMe es (60 283 
024 {2h | 29.225 OVE Sie “ih 2OaeHAe) 28h 
Oe ele elon A(3i O77 | 37 | 32-289 285 
024 }2h | 28.666 OMe INSiTe We sya Ths 286 
024 }2h | 27.253 ON Sie alesorels 287 

wo | ao oo ao | oo on 288 
024 }24k | 24.050 O77 137 | 43.966 289 
Oe ely Fe 03a O77 137 | 46.808 290 
Qa | pele alr teyhat, OM Steere 291 
Oey ral || aleve, vein O77 137 | 50.783 292 
024 2h | 08.513 Oy Wish Gates} 293 
024 | 2h | 02.202 One SHE 4) Glanstes 29h 
OD eomellbo. 272 O77 | 37 | 56.804 295 
02h | 23 | 49.090 Ovi | Sie “We592203 296 
024 }23 | 41.384 Of 30) 10385552 297 
O2 2a eS (34 O77 | 38 | 06.235 298 
02h |23 | 12.997 O77 |38 | 08.284 299 
02 | 22 | 50.352 OW 1/38.) 07.298 300 
024 | 22 | 38.339 Om eo. Obs Old 301 
O24 | 22 | 27.269 ONT Stes) Wests N25) 302 
O22. raesOl a! On | sth. 1) Clea ston 303 
024 722 | 00.228 Onesie al 592590 304 
024 721 | 46.941 077 |37 | 59.972 305 
024 | 21 | 33.265 Oat 305 11002363 306 


T™ No. 306 


TRANSECT 4 


DROGUE K (continued) Depth: 10 Meters 


Time LATITUDE (N) LONGITUDE (Ww) Consecutive 
Date (EST) deg |min| sec deg jmin]| sec Fix. No. 


Aeah 


DROGUE Y II 


Time 
Date (EST) 


28 Feb 


1205 
1230 
1254 
1327 
1343 
W3DD. 
1412 
L424 
L440 
1452 
1508 
TST 
1534 
1545 
1600 
1615 
1630 
1641 
1700 
1714 
1736 
i 
1806 
1815 
1836 
1844 
1904 
1913 
1936 
194 
2004 


i 20s 


2033 


| 2042 


2101 
2108 
2128 
215) 


TRANSECT 4 

LATITUDE (N) 
deg jmin see deg {min 
024 |21 | 18.687 Onielis> 
024 |}21 | 29.065 O77 | 35 
jay enh | hoyatchie O77 | 35 
024 | 21 | 54.530 OTT 135 
024 | 22 | 05.208 O35 
024 122 | 07.838 OT7 |-35 
024 | 22 | 15.459 OTe || S65 
02h |22 | 21:518 O77 | 35 
024 | 22 | 28.389 O77 | 35 
O24 722.9)1 30". 967, O77 | 35 
024 |} 22 | 40.616 OTT | 35 
024 }22 | 46.801 O77 | 36 
024 | 22 | 52.398 OTT | 35 
Oe) 22) 157 09k OW -|) SS 
024 | 23 | 03.496 ON SS 
024 | 23 | 09.496 O77 | 36 
Oya ipeke i| aly sey O75) 136 
O2t 235 230 133 O77 | 36 
024 123 | 30.548 O77 | 36 
02h |23 | 38.077 O77 | 36 
024 | 23 | 47.336 Onn 6 
024 | 23 2.080 O77 | 36 
024 | 2k | 01.370 O77 | 36 
024 24 | 05.579 O77 | 36 
O24 jak | 14.618 O77 | 36 
O22 iuj.ess O77 | 36 
O22 ely ek 633 ON || He 
02h | 2k | 28.652 O77 | 36 
024 } 2h | 33.809 OMG 36 
O24 2h | 36.014 OTT | 36 
024 jek | 4o.41e O77 | 36 
o24 12h | 40.806 O77 | 36 
024 jak J 45.548 O77 | 36 
O22 ae Onn Ona iso 
024 }2h 149.656 so | =o 

== | <0 2° O77 | 36 
024 |}2k 152.523 Ona so 
024 |}2k | 51.163 O77 | 36 


— ——)}  —— 


Ao25 


T™ No. 306 


Depth: 10 Meters 


LONGITUDE (W) 


sec 


42.808 
423.974 
KS 461 
ut. (OL 
46.858 
49.164 
50.407 
51.301 
52.544 
53.780 
54. (23 
02.673 
56.720 
57.158 
58.440 
00.310 
01.228 
00.524 
03.008 
03.124 
04.820 
05.322 


Consecutive 
huises) Nox 
323 
324 
Sy) 
326 
S20 
328 
329 
330 
Sou 
S52 
385 


T™ No. 306 


TRANSECT 4 


DROGUE Y II (continued) Depth: 10 Meters 


Time LATITUDE (N) LONGITUDE (W) Consecutive 
Date (EST) deg ;min| sec deg jminy sec Fix. No. 


DROGUE P 


Time 
Date (EST) 


2 Mar 


3 Mar 


5 Mar | 1055 


O9h6 
0951 
1306 
1341 
12h 
L457 
1534 
1611 
1646 
1705 
1740 
1956 
2033 
2115 
2152 
2238 
2320 


0025 
0108 
0210 
0253 
0350 
o440 
0548 
0650 
0800 
1000 
aL 
1240 
1655 
2037 


TRANSECT 


LATITUDE (NN) 


deg | min 


sec 


14.801 
15.425 


ec 


Bic 
28. 


Syl} 
969 


See 
418 
.O43 
.608 
. 640 
.400 
.B61 
515 
624 
~285 
.667 
-903 


Pao 
-705 
230 
419 
.928 
.836 
565 
.031 
621 
46k 
597 
2097 
2525 
-753 


edt 


2 


5 OLS 


Depth: 


LONGITUDE (WwW) 


deg ;min 


OTT 

Ong 3s2 
O77 | 33 
Oa Ss 
OGS3 
OGGes 
OTC | 2 
OSS 
Off 33 
ONE BS 
O88 
OTT | 33 
O77 | 34 
O77 | 34 
O77 | 34 
O77 | 34 


O77 | 34 
OTT | 34 
O77 | 34 
O77 | 34 
OTT | 34 
O77 | 34 
OTT | 34 
OTT | 34 
O77 | 34 
ON |33 
OM 13D 
Oe. 
ONE SS 
ONT 35 


sec 


36.838 495 
49.872 496 

-- 497 
11.550 498 
iT. 3 ON 499 
ele) 500 
31.897 501 
25.860 502 
4O.179 503 
48.925 50) 
53.046 505 
DilooilD 506 
59.078 507 
02.339 508 
02.342 509 
OD 310 510 
10.285 511 
14.983 i 512 
20.598 513 
28.949 514 
32.147 Bub) 
36.916 516 
37-454 Dui 
41.884 518 
46.340 519 
53.816 520 
11.289 521 
25.210 522 
34.339 p28 
30.719 524 
Lh 627 525 


200 Meters 


Consecutive 
idabie5. Nos 


Bo aly ae 
30 joT-497 | O77 |39 | 55.986 | 526 


T No. 306 


TRANSECT 5 


Depth: 500 Meters 


Time LATITUDE (N) LONGITUDE (W) Consecutive 
Date (EST) deg jmin} sec deg jmin}| sec Fix. No. 


A-28 


DROGUE N 


Date 


2 Mar 


3 Mar 


5 Mar 


Time 
(EST) 


0856 
O911 
1326 
1440 
1552 
1708 
L749 
1902 
2015 
2135 
2300 


0047 
0230 
o412 
0618 
0837 
0927 
1229 
1718 
2017 


1126 


TRANSECT 
LATITUDE (N) 

deg | min sec 

024 | 22 | 06.799 
Oeih || eer || eo). felon, 
O24 | 21 | 57.638 
Oe || al me alter 
(jetty ae |) Gie)aae a 
O21 2275 i26.673 
024 |} 22 | 4o.4ho0 
024 | 23 | 00.246 
024 | 23 | 18.587 
024 | 23 | 33.026 
02) a Ra ic Wie 
024 | 2h | 12.109 
Oe | ek 132.837 
024 | 24 | 56.594 
ah 25 || eyecaley 
024 | 26 | 02.338 
024 | 26 | 13.378 
024 |26 | 45.673 
Ca Ne sir s the 
ah, || eis} || ah, ant 
Galt se i) Si/a 7eite) 


Aw=29 


O77 


5 
Depth: 

LONGITUDE (W) 
deg {min Sec 
O77 |30 | 40.599 
Onfie hsv 1) ale, Weal 
Oia e663 
O77 131 ek. 536 
O77 {31 | 29.343 
(Oyeré || Sti I} Paka istonh 
OMe Ist |) eadnal 
Ove | sier || Oaks rele) 
Of 32) 203192. 
ONC || S> | ala ones: 
Of 32) |) 145659 
OTe alesse 
OS. siya subs: 
OFA, | sei Mss 
O77 | 33 | 05.249 
O77 | 33 | 26.938 
OTE \esis} “I Siosie) 
OMRON Genel: 
O77 | 35 | 04.590 
ONE || Biss || SSAA 


TM No. 306 


1000 Meters 


Consecutive 
Fix. No. 


436 
437 
438 
439 
LO 
WAT 
ho 
43 
hd 
YS 
LG 


bh? 
Lh8 
bhg 


T™ No. 306 


TRANSECT 5 


DROGUE L Depth: 1400 Meters 


Time LATITUDE (N) LONGITUDE (W) Consecutive 
Date (EST) deg |min] sec deg |minf sec Fix. No. 


A=30 


DISTRIBUTION LIST 
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Office of Naval Research 
Navy Department 
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U. S. Atlantic Fleet 

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Commanding Officer 

U. S. Naval Torpedo Station 
Technical Library 

Quality Evaluation Laboratory 
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Panama City, Florida 


Oceanographer 
U. S. Naval Oceanographic Office 
Washington 25, D. C. 


Commanding Officer and Director 
U. S. Navy Underwater Sound Laboratory 
Fort Trumbull, New London, Conn. 


No. 


T™ No. 306 


of Copies 


2 


al 
aL 
i 


DISTRIBUTION LIST (Continued) 


Addressee 


Commanding Officer and Director 
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San Diego 52, Calif. 


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Commander 

U. S. Naval Ordnance Test Station 
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(Technical Library = 1 copy) 


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Johnsville, Pa. 


Director 
U. S. Naval Research Laboratory 
Washington 25, D. C. 


Director 

Applied Physics Laboratory 
University of Washington 
Seattle, Washington 


No 


T™ No. 306 


. of Copies 


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DISTRIBUTION LIST (Continued) 


Addressee 


Director 

Ordnance Research Laboratory 
Penn State University 
University Park, Pa. 


Woods Hole Oceanographic Institution 


Woods Hole, Mass. 

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(Mr. John Bruce) 

(Prof. Columbus Iselin) 
(Mr. Fritz Fuglister) 


Scripps Institute for Oceanography 


(Marine Physics Laboratory) 
LaJolla, Calif. 


Hudson Laboratory 
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Bingham 0. Laboratory 
Yale University 
New Haven, Conn. 


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University of Rhode Island 
Kingston, R. I. 


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University of Miami 

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(Dr. Fritz Koczy) 


Chesapeake Bay Institute 
Johns Hopkins University 
Maryland Hall 

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No. of Copies 


T™ No. 306 


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PRP 


DISTRIBUTION LIST (Continued) 
Addressee 


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U. S. Weather Bureau 
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Washington, D. C 

(Dr. J. Lyman) 


Lamont Geological Observatory 
Torrey Cliffs 
Palisades), Ni. Y. 


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Dept. of Commerce 
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Library -(1 copy) Dept. of Meteorology (1 copy) 
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Corvallis, Oregon 

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No 


T No. 306 


. of Copies 


2 


DISTRIBUTION LIST (Continued) 


Addressee No. of Copies 
Lernier Marine Laboratory al. 
Alicetown 


lenbiaball, del lie ibe 
(c/o Dupont Bldg.) 
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Journal of Marine Research at 
c/o Sears Foundation 

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