OBSERVATIONS FROM MOORED CURRENT METERS IN SAN FRANCISCO BAY, 1978 Compiled and Edited by Jeffrey W. Gartner and Ralph T. Cheng U. S. GEOLOGICAL SURVEY Open-File Report 82-153 Prepared as part of a continuing study of the San Francisco Bay estuary
Welcome message from author
This document is posted to help you gain knowledge. Please leave a comment to let me know what you think about it! Share it to your friends and learn new things together.
Transcript
OBSERVATIONS FROM MOORED CURRENT METERS IN
SAN FRANCISCO BAY, 1978
Compiled and Edited by Jeffrey W. Gartner
and Ralph T. Cheng
U. S. GEOLOGICAL SURVEY
Open-File Report 82-153
Prepared as part of a continuing study of the
San Francisco Bay estuary
UNITED STATES DEPARTMENT OF THE INTERIOR
James 6. Watt, Secretary
GEOLOGICAL SURVEY
Dallas L. Feck, Director
OPEN-FILE REPORT
For additional information write to:
Regional Hydrologist Water Resources Division U.S. Geological Survey 345 Middlefield Road Menlo Park, CA 94025
CONTENTS
Page
Abstract. ......................... 1
Introduction. ....................... 2
Methods .......................... 3
Data. ........................... 5
References. ........................ 10
TABLES
Table 1, Summary of current-meter deployments, 1978. . . . 6
FIGURES
Figure 1, San Francisco Bay current-meter stations, 1978 . 4
Figure 2, Salinity plots from a deployment with
degraded conductivity .............. 8
APPENDIX
Appendix A, Time-series plots of data ........... H
Appendix B, Speed and direction histograms. ........ 60
Appendix C, Data status summary. .............. 86
OBSERVATIONS FROM MOORED CURRENT METERS IN
SAN FRANCISCO BAY, 1978
Compiled and Edited by Jeffrey W. Gartner
and Ralph T. Cheng
ABSTRACT
Current-meter data collected at eight stations in the San
Francisco Bay estuarine system between August 1978 and December
1978 are compiled in this report. The measurements include
current speed and direction, and water temperature and salinity
(computed from conductivity and temperature). Data are presented
in graphical format with each parameter plotted separately.
-I-
INTRODUCTION
The deployment of current meters is one segment of an extensive
interdisciplinary study undertaken by the U.S. Geological Survey to
better understand the interactive physical, chemical, and biological
processes which affect the San Francisco Bay estuarine system. Broad
goals of this study are to understand the processes and rates by which
water, solutes, sediments, and organisms interact; to quantify effects
of river inflow, winds, and tides; and to develop and verify various
numerical and conceptual models of these relations (Cheng and Conomos,
1980).
To examine hydrographic properties of San Francisco Bay, in situ-
recording current-meter stations have been established throughout the
Bay system. Current meters employed permit recording of current speed,
direction, temperature, and conductivity at 2 minute intervals for
deployment periods of up to 30-40 days. This report presents, chron
ologically and station by station, all current-meter da£a collected
during 1978. A brief summary of equipment and methods is given below.
A more complete description of equipment, deployment, recovery, mainten
ance, and data processing procedures is given in Cheng and Gartner (1980)
-2-
METHODS
EQUIPMENT; The current meters used in the program are ENDECO-17^-
digital-recording current meters. The ENDECO-174 is an axial-flow,
ducted-impeller current meter which records data on a magnetic tape
cartridge. Data can be recorded for up to 40 days when the data-recording
interval is selected to be 2 minutes. Accuracy specifications for
ENDECO-174 current meters provided by the manufacturer (Environmental
Devices Corporation, Marion, Mass.) are as follows: speed,-3.0 percent
of full scale (257 cm/a) above the threshold (2.6 cm/s); direction,
-7.2 ; temperature, -0.2 C; and conductivity, -0.55 mmho/cm.
POSITION; During early deployments, all station positions (Fig. 1)
were determined by radar ranges and bearings or visual references.
Later positions were determined by horizontal sextant fixes. Fixes
were determined to the nearest second of arc (-31m).
TIME; In this report all reference times have been converted to
Pacific Standard Time and Julian days.
RECORDED PARAMETERS; Current speed is determined by measuring the
displacement of an encoder-disc driven by an impeller through a magnetic
coupler and a 500:1 reduction gear. Current direction (current meter
heading) is determined from the output of a damped magnetic compass.
Temperature is determined by a thermilinear thermistor and conductivity
by an induction type electrodeless-conductivity probe. Salinity is
computed from temperature and conductivity data based upon the modified
Cox relationship (D. W. Pritchard, personal communication, 1978).
Mention of a commercial company or product in this report does notconstitute an endorsement by the authors or the U.S. Geological Survey.
-3-
122*30' 122*00'
38*00'-
37*30' -
SOUTH SAM FRANCISCO §A Y
FIGURE 1. Map of study region and locations of current-meter
stations (1978)
-4-
DATA
Current-meter data are presented In Appendix A with each parameter
plotted against time for the entire deployment period. The temperature
and salinity values in the graphs were block averaged over 30 minutes
(15 samples) and speed and direction were vector averaged over the same
time period. If either speed or direction data became unusable at some
point in the record and the time series of these parameters are of different
lengths, the arithmetic averages of the "good" data have been plotted
rather than vector averages. This is the case if a compass or speed
encoder failed to perform correctly. In addition to the time-series
plots, histograms of speed and direction (Appendix B) are included to
show the parameter distributions for the deployment period based on the
original 2 minute (nonaveraged) data. Plot legends give station position,
meter height, and tape number. Table 1, which summarizes station locations,
deployment and recovery times for all data included in this report can
be used as a cross-reference to the current-meter stations by referring
to deployment tape number.
In several records the temperature data were in error due to an
electronic problem in the current meters. In these cases conductivity
is plotted rather than salinity because salinity could not be computed
without temperature data. The minimum conductivity which can be
measured by the ENDECO-174 current meter is approximately 5 mmho/cm
(approximately 3 /oo salinity at 20 C). Therefore, during several
deployments, the minimum conductivities and salinities were below the
threshold of the sensor and are not known. Accuracy of conductivity
data may also be affected by two external conditions. These are the
-5-
TAB
LE
1.
Sum
mar
y o
f cu
rren
t-m
ete
r d
ep
loy
me
nts
, 19
78
DE
PL
OY
ME
NT
S
BE
TW
EE
N
1 7
8
AN
D
36
9
7B
CO
MP
LE
TE
D
DE
PL
OY
ME
NT
S
STATION
NUMBER OS
1ea
iOS1
031
08 i
082
082
OS2
082
082
082
083
083
084
084
089
085
GS3
086
086
086
087
087
ess * Date
**Ha
ter
LATITUDE
DEO
38.
38.
38.
38.
38.
38.
38.
38.
38.
38
38.
38.
38.
38.
38.
37.
37.
37.
37.
37.
37.
37.
37.
37.
in J
ulian
MIN
2.6
2. 6
2.6
2. 6
2. 6
2. 5
2. 3
2. 9
2. 9
2. 5
2. 9
9. 6
3. 6
9.8
9. 8
49. 4
49. 4
43. 4
46. 2
46. 2
46. 2
46. 2
46. 2
31. 2
Day
column d
epth
referenced
LONGITUDE
DEO
MIN
121
121
121
121
121
122
122
122
122
122
122
122
122
122
122
122
122
122
122
122
122
122
122
122
to
. 53.9
93. 9
93. 9
93. 9
93. 9
7. 9
7. 9
7. 9
7. 5
7. 9
7. 9
1. 1
1. 1
4.0
4. O
. 21.9
. 21.9
21. 9
. 21. 3
. 21. 3
. 21. 3
. 20. 0
. 20. 0
8. 0
Mean Lower
DEPLOYMENT
DATE*
214
214
214
255
255
214
214
214
255
255
255
250
230
2SO
25O
319
319
319
319
319
319
319
319
319
Low Water
7878
78
78
7878
78
78
78
78
78
78
7878
78 78
78
78
78
7878
78
78
78
RECOVERY
DATE
250
78
23O
78
250
78
286
78
286
78
249
78
249
78
249
78
286
78
286
78
286
78
286
78
286
78
286
78
286
78
343
78
345
78
343
78
345
78'
345
78
345
78
345
78
345
78
343
78
TAPE
NUMBER
OS001A1
OS001A2
08001A3
08001B2
GSOO1B3
GS002A1
OS002A2
OS002A3
OS002B1
GSOO2B2
OSO02B3
GS003A1
08003A2
08004A1
G8004A2
O80O5A1
OSOOSA2
O8OO3A3
OSOO6A1
GS006A2
OS006A3
GS007A1
G8007A2
OSO08A1
DEPTH**
POSITION
50
SO
SO
SO
50
SO
SO
SO
SO
SO
SO
25
29
23
23
40
4O
40
60
60
60
30
30
3O
PITTSBURO
PITTSBURG
PITTSBURO
PITTSBURO
PITTSBURO
BENECIA BR.
BENECIA BR.
BENECIA BR.
BENECIA BR.
BENECIA BR
. BENECIA BR
. RYER 18.
RYER 18.
RESERVE FL
T.
RESERVM FL
T.
POTRERO PT
. POTRERO PT
. POTRERO PT
. POTRERO PT
. POTRERO PT.
POTRERO PT
. NAS ALAMEDA
NAS ALAMEDA
DUMBARTON BR
.
amount of marine growth on the external sensor and the battery voltage
which is a function of the deployment length and water temperature.
Current-meter circuitry generates conductivity reference values applied
in data reduction which greatly eliminates the latter problem; however,
marine growth is not a simple problem to evaluate. As a check on data
validity, current-meter records were compared to existing data from
nearby water-sampling stations collected during research cruises (Alpine
and others, 1981a, b) as well as other current-meter records from the
same area. If data were incorrect for an entire tape (for example if
the electronic circuitry had failed} no record was plotted. However, if
data were correct for only a part of a deployment, the plot was termi
nated at the time of the last corresponding cruise sample where the
data were in agreement or at the point of obvious electronic failure
(see Fig. 2). If no suitable data existed in order to make this
determination, yet the data appeared to be erroneous, the time series
plot was terminated at the point of apparent error. This situation
might exist if the conductivity value at the end of one deployment
differed from that at the beginning of a subsequent deployment at the
same station.
The histograms in Appendix B give the statistical distributions of
speed and direction for each deployment. The histograms can also be
used to identify abnormal instrument performance. For example, in a
few cases an examination of the speed histograms revealed an additional
problem. Discontinuities in the data occured because a few binary
digits were never recorded. This was the result of a mechanical
problem in the encoder which prevented certain discrete speeds from
being recorded. However, this discrepency did not affect the general
-7-
36
30
1 i i i i i i i i i i i i i i i i i i i i i i i i i i i i
201
1
WVVVV'VyV fV f VW
10:
t3w
20
Jrt?
10e«J
£
; 1 1 I 1 1 i 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1
yvvwwv/yvvvvwv^v<vi>v^i * m M
» (
1
m M
w
54 161 1BB 175 1B2 16
FIGURE 2. Salinity from a deployment with degraded conductivity. The
dots in the top plot show the corresponding water sample
obtained from a research cruise. The bottom plot is an
example of that time series plot truncated at the point
of the last cruise when the data were in agreement. The
same data screening procedure is used for all temperature
and conductivity data presented in this report.
-8-
features of the speed records when, they were averaged over a
30-minute period.
Editing of speed and direction readings are much more
difficult and there is no simple procedure that can be routinely
applied to these series. No attempt has been made to correct
erroneous speed and direction readings prior to the averaging and
plotting of the records unless a parameter was obviously unreliable,
The plotted data provide users with a visual record to examine for
possible "glitches". It is left for users to further edit the data
set if desired before the next phase of data analysis. All data
files (2 minute and 30 minute) are currently stored on computer
retrievable media.
Appendix C lists the status of measured parameters and any
applicable notes for all deployments.
-9-
REFERENCES
1. Alpine, A.E., Cloern, J.E., and Cole, B.E., I981a, Plankton
studies in San Francisco Bay. I. Chlorophyll distributions
and hydrographic properties of the San Francisco Bay Estuary,
July 1977 - December 1979: U.S. Geological Survey Open-File
Report 81-213, 150 p.
2. Alpine, A.E., Cloern, J.E., and Cole, B.E., 1981b, Plankton studies
in San Francisco Bay. II. Chlorophyll distributions and
hydrographic properties of the San Francisco Bay Estuary,
January 1980 - April 1981: U.S. Geological Survey Open-File
Report, in prep.
3. Cheng, R. T. and Conomos, T. J., 1980, Studies of San Francisco
Bay by the U.S. Geological Survey, Institute of
Environmental Sciences, Philadelphia, Perm., May 12-14,
1980, Proceedings, p. 299-303.
4. Cheng, R. T. and Gartner, J. W., 1980, Working notes on current
meter deployment, recovery, maintenance, and data
processing for San Francisco Bay: U.S. Geological Survey
Open-File Report 80-1297, 68 p.
-10-
APPENDIX A
-11-
SPEED CCM/SDDIRECTION CDEG T}
2130rnncHH73mH7) 73 corn
032 CH
m m
DO O
mDOm
rn rn
o DOCOrn
H H oCO
T30>0m i ®
C I H 20)2 EDO&C m2H73 rn
CD <c^ i m 00173
CD
CD
IU CD
CD
Ol Ol
TITi I II I I
I I I I I I I I I M I I M I I I I I I I I I I I I I I I I I I I I
-EI-
TEMPERATURE CDEG CDSALINITY C0/00}
rnncHH73rn-H73 73</>rn
032 CH
"n m mH
03 O
m
m
rnHm73
o00 COrn73
HoCO
"0 0& COm i ® zro2C I H 2 0$ ZODOOCmz H 73 rn
Q <o> i mCD 01 73 CD to> I O>oi rn c» co
01
fU
ru
ro ^03
ru ui ui
K ro ro cu CD 01 s tn s 01
MM
III
I I I IMMMM
Ml
2H Z H 2
O O
c oH H <H-H-< \ CO >r HzH H
DOrn r os:
73rnCOi o r
o n
COmzCOo7J
M I t
360 r~i
i i i
i i
i i
i i
i i
r
270
180
tD
LU Q O H U4
90
a: H Q
u i
i i
i i
i i
i i
i i
t i
i i
i i
i i
i i
i i
i i
i13
220
227
234
241
248
160
I I
I I
I I
I I
I I
II
I I
I I
I I
I I
I I
I I
I I
I I _
220
227
234
241
JULIAN DAY, 19
78248
255
CURRENT METER OBSERVATIONS C3
0 MINUTE AVERAGES)
PITTSBURG
38- 2-38N I21-53-58W
METER
24 FE
ET ABOVE BE
D. TAPE NUMBER
GS00
1A2.
n si in <s in *s in <sD
CD
CM
CM
H
H
C00/0D
AilNIIVS
_ i
i i
i i
i i
i i
i i
i i
i i
i i
i i
ii
i i
i i
i i
i i
i i
i i
i i
i i
i i
i i -
E =
= =
» -
i E
E '
E
" i
i i
i i
i i
i i
i i
i i
i i
i i
i i
ii
i i
i i
i i
\ i
i i
i i
i i
i i
i i
i i
-
ris H-* V
f^1 u LU a
25 20 15
UJ10
U. LU
i i
r
220
227
234
241
I I
Ii
i r
i i
i r
i i
r rir
i i
i i
i i
i i
i i
i i
ii
ii
i i
i i
i i
i i
i i
220
227
234
24i
JULIAN DAY, 1978
CURRENT
METE
R OBSERVATIONS C38
MINUTE AVERAGES)
PITTSBURG
38-
2-38N I21-53-58W
METER
24 FEET ABOVE BE
D. TAPE NUMBER
GS081A2.
248
I I
I I
248
1 I
CID
k? I
TT
I I
I I
I I
I I
I I
T""T
I
I I
I I
I 1
I I
I I
I I
I I
I I
I T
I I
I I
I I
I I
i _
I I
I i
I i
I I
I t
I I
160
w
I I
I I
I I
I I
227
234
241
JULIAN DA
Y, 1978
CURRENT METER OBSERVATIONS C3
0 MINUTE AVERAGES)
PITTSBURG
38- 2-38N 121-53-58W
METER
5 FE
ET ABOVE BE
D. TAPE NUMBER GS001A3
.
24
8255
35 30§
S
25
Q
W20
> *~ 1
*1
H 1
0
H10
cn
5
T I
TIT
I I
I I
I I
I I
I I
IIII-
MINIMUM CONDUCTIVITY/SALINITY BELOW THRESHOLD OF
SENSOR.
S 25r-r-|
220
I 1
i i
iI
i i
I i
i227
234
241
248
3.3
220
227
234
241
JULIAN DAY, 1978
248
CURRENT METER OBSERVATIONS C3
0 MINUTE AVERAGES)
PITTSBURG .
38- 2-38N I2I-53-S8W
METER
5 FE
ET ABOVE BED. TAPE NUMBER GS001A3
.
-81-
SPEED CCM/SDDIRECTION CDEG "D
2T3OPIHC
</>m032 CH
m mH
O
rnoo m
m -I m
o ooCOm73
H H O
-0000)m i s>
c i H 20i2OOO)Cmz H po m
co<m
OD I Opocn m
00 CO s: w
{^,K
IU05 K
ro0)OD
rovj Ul
roCD IU
fU m
tl * S
1 1 i 1 i It 1!
^,
l«
V.
C" Jf
^
i.
" -A-
cJL
f
1 1 1 1 1 II 1
H3 a i IS
1 1 1 1 1 1 1 1
1 1 1 1 1 M 1
rv ) v i IS
1 1 1 1 1 1 1 1
7
*
J
...--...--.-rr i~
f
f
.... ^r
i*~
- "»"
J
3-
iii mil1
1 1 1 1 1 1 M
3 a j a* IS
1 1 II 1 1 1 1
-
a
-
-
-
-
-
M
1 1 II II IICD
-61-
TEMPERATURE CDEG C3ra
2"DO i^;mHC
D02 CH
rn "n H rn rn ^
o K> DO DO COo rn <r 73 rn <DO Hrn H o o
"DOOOi brn i ® g
C ! H O
DOOOC r^ rn2 H 73 rn K CD
Q PO > NJ [OCO < CD J^J© i rn U*
DO 1 Oi\>cn rn
00 CO
r\)CDro
fV3 CD CD
K K ro rv n Q en Q a i i i i
-
-
-
-
-
-
-
-
-
-
-
-
-
-
-
^
^ ,
-
«
CONDUCTIVITY CMMHQ/CMD h* K IO fU tl) to)
\JI
OD
ru0) CD
^Ul
(\) CDf\i
toCD'
1 1 1 1 1 1 1 1 1
JU^.
- FIIII _ .
>
_-
i
-i
"**
- --
-
1 1 1 1
>,
>>' 9
,
*
IIII
Mil
IIII
MM
IIII
MM
2 H 2 H2 C 2
OO 2
CO-1H
HH
Y/SAL
JH
HH
DOrnro* -1
rnCO
or
o
COrn2 COo?°
IIII
-
-
-
-
_
-
-
-
-
-
*
-
-
-
.
-
MM
CD
OD
I0
r\
HT
7/3
ICD
270
LU Q
w O H CJ LU
90
a: H a01
= i
i i
* i
i i
i i
i i
i i
i i
i i
i i
i i
i i
i i
i i
i i
i i
i i
i .
- - E E 2 - z _ - -1
f U i
WU
« It
J
i i
i i
i
1fi '
r ' '
r
'
1 1
ItfV
l lK
/fU
IU
s n i
W 1J
W
H I
-
C N
k C
JL lil
|riy|
fll/
i i
i i
i i
i i
i I
i i
i i
i i
i i
1 i
i i
i i
i
ij i
i - E - ~
H
i - -i ii
i -
261
263
275
282
to
O
I
t/) u v~/ a LU U)
160
140 E
120
E
100
E
268
275
JULIAN DAY, 1978
CURRENT
METE
R OBSERVATIONS C3
0 MINUTE AVERAGES)
PITTSBURG
38-
2-38N 12
1-53
-S8W
METER
5 FEET ABOVE BE
D. TA
PE NUMBER GS081B3
.
282
289
289
r-\ Q ®
35
30 5r_
1 1
1 1
1 1
1 1
1 1
1 1
1 1
1 1
1 1
1 1
1 1
1 1
1 1
1 i
1 1
1 1
1 1
-
E MINIMUM CONDUCTIVITY/SALINITY BELOW THRESHOLD OF SENSOR.
=
E .
E
E i
E E
= =
- i
n n
A « f
l d_A ^
.A.4._-*-.».*ii^^.i
r ^
_Ǥ
i i
i i
i i
i i
i i
i i
i i
i i
i i
i i
i i
i i
i i
i i
i i
i i
-261
263
275
2B2
269
261
268
275
JULIAN DA
Y, 1978
282
289
CURRENT METER OBSERVATIONS C3
0 MINUTE AVERAGES)
PITTSBURG
38- 2-38N I21-53-58W
METER
5 FEET ABOVE BE
D. TAPE NUMBER GS001B3
.
360c
-T
^ u
a w z
o H
(J ui QL
H a
27
0
lB0
90
i i
6 I
i
Til
I 1
I I
I I
I I
I I
I I
I I
I I
I I
I I
I I
I I
I I
I I
I I
I I
13220
22
72
34
241
248
I 10
10 I
227
234
241
JUL
IAN
D
AY
, 1978
CURRENT METER OBSERVATIONS C3
0 MINUTE AVERAGES)
BENECIA BRIDGE
38- 2-27N 12
2- 7-30W
METER
43 FEET ABOVE BED. TAPE NUMBER GS002A1
.
24B
2030rn rn c HZ73mrn73 TDorn
HZ > H
73 rn "HH-Hrno rn
rn
O <rnO3rn
COrn73
H O ZCO
"DOOOim i o
C I H
OJ-sJCrnz H TD rnCD l\)> COI\)<GD i rnS> 73
> I CD co rn
s>co
TEMPERATURE CDEG CDK K ru ru 001001
CD '
fUru
roXI
_ cH
Oro CD
CD xl CD
ru
ro -^CD
ru 01 m
i i i i i i i i
CONDUCTIVITY CMMHO/CMDK K ru rU CD CD
'Jl Q 'J\ Q 01 *S 01CD
ru ru s>
ru rux]
ru CD ^
ru -^ K
ru -^ CD
ru 01 01
MM MM M M I I I M I i M I I M I I M M I
ILLi II M I I I M I I I M I I I M I I I M 1
360
270
z!8
0
o H
U
- J
1 1
1 1
1 1
l Illl
i 1 1
1 1 1 1
i n
i-
1 i
i i
i i
i
i i
i i
i i
i i
i i
i i
Httf
fi1
1
III
1 \ II
1 1
> !
1 1
1 1
1 1
1 1
1 1
1 1
1 1
1 I
1 1
1 1
1
i i
in\
t '
, ,,),,
H
1 1
1 1
1 1
1 1
1
1 1
1 1
1 1
11111
, , ,,
1,III
1!
1
1 1
1
1
if-i *
l ¥
1 '
' '
i l
l l -
1
t I ^ ^ -
I 1
l |
~a
13220
227
234
241
249
i fo
-JN
.1.D0
n ii
i
i i
i i
i i
i i
i i
i r
140
^1
00
y 80
Q
__
LU
60
LU 9*
4
0
20 £
I I
I I
I I
I I
I I
I I
I I
I I
I I
I I
I I
I I
I I
< I
I I
I I
I 1
I13
22
022
7 234
241
JULIAN DA
Y, 1978
1 I
I
248
255
CURRENT
METER
OBSERVATIONS C3
0 MINUTE AVERAGES)
BENECIA BR
IDGE
38
- 2-27N 122- 7-
38W
METER
24 FEET ABOVE BE
D. TA
PE NUMBER GS002A2
.
35c
i i
i LI ill ii i.i.i
i i
LI
i 11 iii
i i iiii
i i
i i
i i
i
I NJ
Ul I
25
u a 20
Q h-
15
,
UJ10
Q_
UJ
T I
I I
I I
I IT
I
I \
I I
IIT
I
I I
I T
I \
I I
I II
I I
I I
I T
I
I T
II
I III
I I
I_
I
1__1
I
_l_
I I
I I
I I
I I
I I
I I
I I
I I
I I
I I
I I
I I
I I
13
220
22
7
23
4
24
1
JU
LIA
N
DA
Y,
19
78
248
CURRENT METER OBSERVATIONS C3
0 MINUTE AVERAGES)
BENECIA BRIDGE
38- 2-27N 12
2- 7-30W
MF
TP
D
OA
P
FF
T
AR
H\/P
R
FD
T
AD
P
Ml
IMR
FP
ft
dd
CC
?A
O
360
ro160_I
I !
140
O)120
r!00
u w 80
LU 60
W 8j 40
20
13'.'
II'S'
JI220
227
234
JULIAN DAY, 1978
241
248
CURRENT METER OBSERVATIONS C3
0 MINUTE AVERAGES)
BENECIA BR
IDGE
38
- 2-27N 12
2- 7-30W
METER
5 FEET ABOVE BE
D. TAPE NUMBER GS802A3
.
I I
I I
I I
I I
II
I I
I I
I I
I
TEMPERATURE
CDEG
C3
H- H- ro ft
n s ui s> u
1 1
1 1
1 1
1 1
1 1
1 1
1 1
1 1
1 1
i i
i i
i i
i i
i i
i i
i i
i i
i i
i i
i i
i
ir "
i-
i §
§ i
i i
i §
i i
i i
i i
i i
i i
2l3
220
227
-
234
241
248
255
JULIAN DAY, 1978
CURRENT METER OBSERVATIONS C3
0 MINUTE AVERAGES)
BENECIA BRIDGE
38- 2-27N 122- 7-
30W
METER
5 FEET ABOVE BE
D. TAPE NUMBER GS002A3
.
360
270
CD
UJ a w o H
O UJ 90
o:
H
Q
, , , , | , , ! ,
I I I I I I
~ I
I I
'I
t I
I I
I I
I I
I I
I I
I 1
I I
I »
I I
t I
I I
I I
I I
I I
261
26B
275
282
299
i to
oo
I
160 in
i i
i i
i i
i i
i i
i i
i i
i i
r
140
/-v
0) CJ
v_/ a
QJ 01
O. to
120
100E
80 60 40 20
4261
268
275
JULIAN DAY, 1978
282
289
CURRENT METER OBSERVATIONS C30
MINUTE AVERAGES)
BENECIA BRIDGE
38- 2-27N 12
2- 7-30W
METER
43 FE
ET ABOVE BE
D. TAPE NUMBER GS002BI
.
I I
I I
I I
I I
I I
I I
I I
I I
- I
I I
I I
I I
I I
I I
I I
I I
I I
I I
I I
I I
I I
I I
I I
I I
1 I
I -
261
268
275
282
289
I I
I I
I I
i i i i i i i
261
268
275
JULIAN DA
Y, 1978
282
289
CURRENT METER OBSERVATIONS C3
8 MINUTE AVERAGES)
BENECIA BRIDGE
38- 2-27N 122- 7-30W
METER
43 FE
ET ABOVE BED. TAPE NUMBER GS802B
I .
SPEED CCM/SD-0£-
2030mmc-HZ73mm/o >oom
HZ>-l
ro-U03273m TJH-H
mom m o/o
CDo< m
m
oDO COm
H O
CO
"0000>m i CD
c i H srozCD vJCmz-i 73_mO!\»cor\>< Q i m
CD i oCD CO
DIRECTION CDEG TDK ro w CD CD xj CD
t2» Si S Si
^3
5u _
- x 3
0 o 5 2
5z: W
20
HIS
Hl0
U Q
5 §i
I i
Ii
I I
I I
i I
I I
Ir
i i
i i
i i
i i
261
268
275
282
289
25
r Q a 2
0Q
15
LU
10
o. u I-
1 1
1 1
1 1
1 1
1 1
1 1
1 1
1 1
1 1
i i
i i
l l
l i
i i
i l
i l
i i
- - ~ i !!
| |
i i
i i
i i
i i
i I
i I
iI
I i
i i
i i
i i
i i
i i
i i
i ~
261
268
275
JULIAN DA
Y, 1978
282
289
CURRENT METER OBSERVATIONS C3
0 MINUTE AVERAGES)
BENECIA BRIDGE
38- 2-27N 122- 7-
30W
METER
24 FE
ET ABOVE BE
D. TAPE NUMBER GS002B2
.
360
i i
i i
i i
i i
i i
i H
i i
i i
i i
i i
i i
i i
i i
_
I I II
i II
I I III
II
268
275
282
289
i i
i i
i i
i i
261
268
27
5
JUL
IAN
D
AY
, 1978
282
CURRENT METER OBSERVATIONS C30
MINUTE AVERAGES)
BENECIA BRIDGE
38- 2-27N 122- 7-30W
METER
5 FE
ET ABOVE BED. TAPE NUMBER GS002B3
.
289
I
I I
I I
I I
I I
I I
I I
I I
I I
I I
I I
I I
I I
I I
I I
I I
I
I OJ
25
Q CD LU Q
v-/ LU CK I- o:
LU Q.
LU
20 15 10
26
82
75
28
2289
I I
I I
I I
I I
I I
I I
1 J
I
261
268
275
JUL
IAN
D
AY
, 1978
282
289
CURRENT METER
OBSERVATIONS C30 MINUTE AVERAGES}
BENECIA BRIDGE
38-
2-27N 12
2- 7-
30W
METER
5 FEET ABOVE BE
D. TAPE NUMBER GS002B3
.
360.
i
i. i
i i
i i
i i
i i
i i
ii i
i i
i
CD 270
LU Q
w zlB0
o H u
_ LU 901
£K H
Q
I I
I I
I I
I I
I I
I I
I I
I I
I I
I
I I
I_I
I_I
I I
i i
I I
I i
ii
It
tI
I H
i i
48
160
140
255
262
269
276
293
290
i i
i i
i r
i i
i i
r i
i i
i r
i i
i i
i i
i i
i i
i i
262
269
276
JULIAN DA
Y, 1978
CURRENT METER OBSERVATIONS C3
0 MINUTE AVERAGES)
RYER ISLAND
38- 5-34N 122- 1- 5W
METER
18 FE
ET ABOVE BED. TAPE NUMBER
GS00
3A1.
283
290
-£ -
TEMPERATURE CDEG CD
m-<c
H
m m
DD O <mCD m
m2
rn m
COm
H H O "Z.
CO
"DOOOim i o
C ! H 12 COZCD J^C P12 H73 rn
CO< rn
CO i CD> m CfiCO
SALINITY C0/00D
CD
Ul 01
ro tn ro
ro CDCD
roXJCD
ro CDCD
IX) CD
iiiiiiita
ni n i
I I I I MM
MM
J\J01<&
(i)01
I I I IMM
TIM TTTT
MM
-9£-
SPEED CCM/SDDIRECTION CDEG TD
2/00 m-<c
rnHZCOH r~>2zm
m
oCD COrn30
HoCO
rn rn
CD o <rnCDm
13rn
c i HOJ-UC
73 mro>
Qro< co i rn
CDrn
CDI I I I NITI I I I I I I -I I I III Ml III
D >-<
ro0)UD
ro CDI I I I I I I I I M I I I I I I II I
...... ... _ 1 M 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1
I I I II IM11 I I I I I I I M I II I I I I
35c-i
30
i i
i i
i i
i i
i i
i r
i i
i i
r-\ »25
^20
i** H10
< O)
i i
i i
i i
i i
i i
i i
i i
i i
i i
i i
i i
i i
i i
i48
255
262
269
276
283
230
262
269
276
JULIAN DAY, 1978
CURRENT METER OBSERVATIONS C3
8 MINUTE AVERAGES)
RYER ISLAND
38- 5-34N 122- 1-
SW
METER
5 FE
ET ABOVE BED. TAPE NUMBER
GS08
3A2.
283
290
-8C-
2XJOmmc
r~ m ~nm H n n rn
CDo
o DOCOrn
m <CD m o
H oCO
m i cb 2012C I H 2012 DOS)Crnz-i TD n
m
1 O01 m coco
SPEED CCM/S)
CD
ro 01 en
roO)ro
cH >
a >i KCDxlCD
ro0) CD
roVIen
ro CD
ro CD
I I I I I I I I I I I I M I I I I I I I I I ill III
I I I I I I M I M I I I I M I II t
DIRECTION CDEG TD K ro CD CD vl
CD 0)
IX) Ul CJ1
ro enIX)
roU)CD
IX)vjCD
ro CD
CD
I I I i 11 I I I I I I ITT I I I M I I I I I II II I I I I
..................... .... ' i » '« 1 1 n i 1 1 1 1 1 n i n i n 1 1TTTTTIUL
I I
I I
I I
I
- I
I I
I I
I I
I I
I I
I I
II
I I
I I
I I
I I
I I
I I
I I
269
276
28
32
90
I u>
262
269
276
JULIAN DA
Y, 1978
CURRENT METER OBSERVATIONS C3
8 MINUTE AVERAGES)
RESERVE FLEET
38- 5-50N 122- 3-59W
METER
18 FE
ET ABOVE BED. TAPE NUMBER GS004A
1 .
283
290
i i
i i
i i'
i i
269
276
2B3
290
o
f-\
U)
U
160
r~i
i i
i i
i i
i i
i i
i i
i i
i i
i i
i i
i i
i rf
140
120
100
Q
LU
LU
CL
O)
*262
269
276
JULIAN DA
Y, 197B
283
290
CURRENT METER OBSERVATIONS C30 MINUTE AVERAGES)
RESERVE FLEET
38- 5-50N 122- 3-59W
METER
5 FEET ABOVE BED. TAPE NUMBER GS004A2
.
35 30Q ^ H O
)
I I
I I
I I
I I
I I
I I
I I
I I
I I
I I
I
48
I P- i
CJ
I I
I I
I I
I
i i
I I
i i
i i
i i
i i
i i
i i
i i
i i
i i
i i
i i
i i
i i
i i
I I
I I
i -
262
269
276
283
290
I i
I I_
_I
L
1 1
i
262
269
276
JULIAN DA
Y, 1976
CURRENT METER OBSERVATIONS C3
0 MINUTE AVERAGES)
RESERVE FLEET
38- 5-50N 122- 3-59W
METER
5 FE
ET ABOVE BED. TAPE NUMBER GS084A2
.
283
290
360
270
LU Q o H (J LU 90
o: H
a
- ^ - - I ^
1
p
1
J1
y U
T* fY
u<
f / |
\M 1
i \
\*
1 r
ii
1
i
i /t
<\
i\
r i
r
i
i i
i i
I / I
/ 1
I I
jLA
|
1 h M
\ , i
" ^
i
iA
.1
1 >
| |
ft
1
1 ^ |
- - E - - -
19326
333
340
347
1601
V 140
I I
I I
I I
0.9
326
333
JULIAN DAY, 197B
340
347
CURRENT METER OBSERVATIONS C3
0 MINUTE AVERAGES)
POTRERO POINT
37-45-25N I22-2I-55W
METER
28 FE
ET ABOVE BE
D. TAPE NUMBER GS005A
I .
-e*-
rnoc
^j m rnOH
ro oo ~o 2
o rn "nHH mzm rn H X)
00 O
mDDrn
rn i
o CDCOrn
H O
CO
0)
2H C
DDO1C
xi rnCD r\) ^ o^ r\) <c o i rn01 > > i CD an rn
01 CO
TEMPERATURE CDEG CDK K roQ oi >s
SALINITY C0/00D
CD
CD fX)cn
c_ cH
v
K CD x|CD
CD CD CD
CD
CD4^xj
ro ui
i i ii i i
CD
CDroD)
CD CD CD
CD
CD Js
K K f\J f\J CD U aUlQCJliSUllSiUn M
"*
-
-
-
"_
-
-
-
1 1 1 1
MM
1 1 1 1
MM
1 1 1 1
MM
1 1 1 1
MM
M
Mil
MM«
j]l
')
11
1 11
i 1<!I
J
i(!
^ -
1 1 1 1
MM
??> _ >
>
i
>
-
-
"
_
>
>
>
X
>
)
»
»
k
>
1 1 1
II II
-
- -
f <
/ i
V \
-
1 1
1 1
1
' J
I1 i
A1
j
j
Ar
' u
t *
f 1
V p
i .
, M n
vT
f
I if
i
i i
i i
iL
Al
* i
1 f M
1
1
1
11 1
1 1
11 1
1 1
I,1 , t \ 1
1 1
1
f V 1
1f
1
1
1
u K n
I ^ -.-
/-\
LU Q O H UJ
90
o: H Q
i9326
333
340
347
160r i i i i i i i i i r
140F
326
333
JULIAN DAY, 1978
340
347
CURRENT METER OBSERVATIONS C30
MINUTE AVERAGES}
POTRERO POINT
37-45-25N I22-21-55W
METER
16 FE
ET ABOVE BED. TAPE NUMBER GSQ05A2
.
TEMPERATURE CDEG CD
21)0rnocHH;0rn;o;o 72 mm
^3ZOH
omrnz rn
, rnHrsH
O> DO DO COo rnDO m
m
-4 H O
"0 Vj (j$
rn i ®2(^2 C I H IZPOZDO en c mz H xi rn
coi\>< s> i m s>ro3D en > > i o r\>cn m
cnco
^LJl CD
1\\\ 1711 -I III III!
ro
c: H
CD CD CD
CD xj O)
(JJ
CD
xl
01
II
ro ro is 01
i I» i i
SALINITY C0/00Dfll_ K K ro ro CD CD as ui Q ui S ui is uiCD
CD (V) 0)
CD CD
CD
CD
XI
Mil
-
-
-
-
-
-
-
Mil
MM
Ml 1
MMMM
MM
MM
MM"
MMH
1
«
(
t
4
i {ic
$I<
1I
111 I
-*» * MM
MM
i ""
>
>
.
»
>
>~
1
-
>
»
»
1 Ml
360
r\ ID
LU
Q O
H U
LU o: H Q
I i
i i
i i
160
? 140
^1
00
"
80;
LU
60:
LU 85
40
20 19
326
333
340
i r
i r i i i
i i , -, -
, -
,
, --
, -,
-
326
333
JULIAN DAY, 1978
340
347
347
CURRENT METER OBSERVATIONS C30
MINUTE AVERAGES)
POTRERO POINT
37-45-25N I22-21-55W
METER
5 FEET ABOVE BE
D. TAPE NUMBER GS005A3
.
TEMPERATURE CDEG CDSALINITY C0/00D
2TJOmoc
;omm 73-2. OH
om TIHH mzm
00o m03m
H XX
m^
o DOCOm
H H O
CO
0)
C I H 2!\)Z OOO1C P12 -i33 m
s> i m s>i\);o 01 > > ! CDco 01 m
O1 CO s: w
/^ a 01
CD
CDro en
CD CDCD
CD
CD
I I I I Mil IIII ill! IIII Mil IIII
lit!
K ro ro CD CD 01 Q ui is ui
MMj I I
-817-
SPEED CCM/SDDIRECTION CDEG TD
rnoc HHXI rnxj 73 xirnrn
XJZOH
orn -n w -i rnz rn rnnxiH
O 03 COrn
CD O <mDDrn
m i
H H O
CO
Oi
C I H 2 Zcocnc mz H xj rnor\)> © i rn
> i o ro m
SCO
K K K K fi\_ ro-^tna3iaiU4^cngSr >S IS IS JS >S >S <S >Sr« I i I 11 I ill i i I Jii i I I i 11 TTT(D
CD l\DCD
CD(1)CD
CD*L
GJ
CD-t*
0 i IS
1 1 1 1 1 1 1 1
M
» '
»
M*
M
*
OT»
-
1 1 1 1 1 1 M
h3 a i IS
1 1 1 i 1 1 1 1
*!*="C
d
*.
^
iu
_f~
_^T
tr,,.
^S "
SJ "
^j"
^CH
dl
"d
"^3
i
j[~~
TL.^
^1^
Ji"^k^."VL_
1 1 M 1 1 1 1
l\3 v i IS
1 1 1 f M 1 1
£L .
_
1 1 1 1 1 M 1
) a 4 cr i IS1 1 H 1 1 1 1
T
fc.
J«
___n _*-
e
"*?
"^
* -
i
t
~f-
,.,., fc
^_
T
1 1 II 1 1 1 1
mocHH73
xD m m OH
on mz m
> DO ornDO m o
o DOCOm
H H o
"D "^sl 05m i s>
m
i m
> i o rom
CD CO
TEMPERATURE CDEG CDfn K K r\j ro an si 01 ca .01
CD CD
CD
CD
SALINITY C0/00DK K (\J M CD CD
'ji Q in Q in is in
CD
O)
CD CD CD
CD
CDMM
1 1 1
1 1 1 1
1 1 1 1
1 1
1 1 1 1
1 1 1
1 1 1 1
1 1 1 1
1 1 1 1
mi
i 1 1 1
1 1 1 1
dDk?
*~\~
r f%
13 2
70
LU a w O
H (J ui
90
a: H a
r9l^ 1 1 ^
^
1 1 1
11k I
11
T |
M
\
1
1
^
n
/ \
u
1
1 [jl 1
1 ^ u ^ 1
11 Jl1 u11 ft 1 1
" ^^ H
It
1 « JJ
1«
1
* ' S 1
^ 1
\ \
* \
< kl
.
j
1 H J
I
^ J
1
^
\
1
i \|l i
M
b
1 1 1
111 HI1 111 i
> * i i
>
i i
i - ^
119
326
333
340
347
160r
I I
I I
I I
I I
I
326
333
JULIAN DA
Y, 1378
340
347
CURRENT METER OBSERVATIONS C3
0 MINUTE AVERAGES)
POTRERO POINT
37-46-15N I22-21-20W
METER
24 FE
ET ABOVE BED. TAPE NUMBER GS006A2
.
-15-
2T)0moc
73Z OH
ro orn "HHH
mz rn
>O)o <rnO)m o
oO) COrn X) <H H O
CO
rn i CD20)2 C I H
cocnc X) rn
CD i rno> > > i o ro ro rn
TEMPERATURE CDEG CDK K ro*s> 01 s>
SALINITY C0/00Dru en
CD
n
CD CD
CD CD
CiJ
CDXI
i i i
i i i i
- 1 1 1 1
i i i i
1 1 1 1
i i i i
f*CD
CDroCD
CD CD CD
CD
&
CD-£»,
!-* H*- ro ro CD CJL ^ on s -Ji Q on Q u TTTl
-
-
_
-
-
-
1 1 1 1
1 1 1 1
1 1 1 1
1 1 1 1
III!
1 1 1 1
1 1 1 1
1 1 1 1
1 1 1 1
1 1 1 1
t
4
1
t
C(£CcCc Cct c;ccCcC cIItt t
ccc«
1 1 1 1
1 1 1 1
>
>
3i>
>
»
»
i
»l ^
>
>r "" 1>> >)i»
5
3 i
>
>> -
J
360
270
180
I I
I.
CD
LU Q O H LU
90
\1
H Q
1 11
119
326
333
340
347
Ui
NJ
I
160c i i r
140
326
333
JULIAN DA
Y, 1978
340
347
CURRENT METER OBSERVATIONS C3
0 MINUTE AVERAGES)
POTRERO POINT
37-46-15N I22-21-20W
METER
5 FE
ET ABOVE BED. TAPE NUMBER GS086A3
.
2T30rnoc HH^)
^) rn rn OH
ornrnzrn rn H /o H
oo ornoo rn
-H"Drn
o ooCOrn
H H oCO
s> Jx 20)2C I H
0001C P12H^) rn
cor>o< s> i rn
oororn QCO
-es-
TEMPERATURE CDEG C3
s en sI\Jui
CD
(Dro
c. rH
DCD CD (D
CD XI CD
(D
CD -^ XI
i i i i i i i i i i i i i i i i
11111111
SALINITY C0/00D H- K ro ru w CD
CD
CD
0)
CD CD CD
CD
CD
N|
MM
-
-
-
11 JJ
1 1 1 1
MM
1 1 1 1
1 1 1 1
1 1 1 1
MM
1 1 1 1
i
1 1 1 1 ~
4
<
1 J[t1ctc[<tt <c4C4
t«
1
C1<
1
c <c c(<
1 1 1 1£ - 1
>
k ""
1
»
I
»»
>
k
>
>
>^ *""
>
> MB
^
>
>
5
>
3
3
>
5
>
^
" ^ 2 2
\r ^ (
ft
1s 1
« '
1 « -
IP
4
\
\ ^
1
V1 11
«
1
1 1
1 1
1 M-
1 H II 1
1 T
. J
^
1 |
1 1 ^
/^
1
. ^ 1
1 4
1 |
1
1 1 . IJ
1 h
1 1
"
1 i
1*
<
1 1
* I
} '
'
1
r* L Ju
M
1 ^
ft
N;
1 1
1
1
l|||l
1
\
1 ^
1 i|
1
4
N
w
J
« ll
1 1
1 1
1 1
1
I
1 M
j
5 I 5 ;
270
LU Q 2180
O H (J a19
326
333
340
347
I *»
I I
I I
I I
I I
333
JULIAN DA
Y, 1978
CURRENT METER OBSERVATIONS C3
0 MINUTE AVERAGES)
NAS ALAMEDA
37-46-I4N 122-20-
0W
METER
18 FEET ABOVE BED. TAPE NUMBER GS
007A
1 .
340
347
326
333
JULIAN DA
Y, 1978
340
347
CURRENT METER OBSERVATIONS |38 glNUJE
^AVERAGER
BETE
RLA
i8DF
EET
ABOV
E BE
D.
TAPE
NUM
BER
GSM
TAI
.
SPEED CCM/SD-95-
DIRECTION CDEG TD
220m>cH</>7)m 7)
m m H
CD o <mCD rn
on m
oCOc/> rn
H H O
*0 vl Gim i ©
oo m
0)2i H 2
i m
> i o r\> rn
LD
ro 01
crH
nCD §CD >CD
CDNjCD
QJ
CD 4^ xj
111111 M
il
i 11i ii
WsCD
0) fU (D
CD CD CD
CD 4* IS
CD
111111
CD &
I I I Mill
ill!
i in i ri 11 n i in 1111 n 11
35
30
1 1
1 1
1 1
1 1
1 1
1 1
1 1
1 1
1 1
1 1
1 1
1 1
-
Q W2
0,
H
H10
U)
f)
i i
ll
l l
i l
i i
il
i i
i i
i -
19
25
326
333
34
03
47
U HI
Q20
I i
i r
i i
i I
i I
i
jjjl
S
. _
UJ10
CL
Ui
i i
i i
i i
i i
i i
i i
i i
19
32
6333
JUL
IAN
D
AY
, 1978
340
347
CURRENT METER OBSERVATIONS C30
MINUTE AVERAGES)
NAS ALAMEDA
37-46-14N 12
2-20
- 0W
METER
5 FEET ABOVE BE
D. TAPE NUMBER GS007A2
.
-8£-
2OOrncc
XJ2HH o
0022rn -noiH
HOQO >rnco oo </> o rn
rnCD rn
H H o
rn i
C I H 2-2
rn
C/>IN>< © i rn
> i a cnrn
SPEED CCM/S3DIRECTION CDEG TDIV)
WsCDtoen
FIT TTT M
fe
CD
CD
CDro en
111
1 1
111111i 1111 i
CD
CD fOtn
1 1 III III
JJJJJUL
1 1 1 II 1 1 1
1
Mill Ml
1 M 1 1 1 1 1
1 II II II 1
1 1 II 1 1 1 1
(^-
r
i 1 1 1 1 1 1 1
VO I
DQinQincsiinc
0
(T)
C\J
C\J
H
H
C00/0D
AIINIIVS
.111
~ -
III.
;
E E
i 'E
E E
I
I
-III
III-
ria25
/-% u
S20
915
LU10
Q_ LLl
H- _
326
JULIAN DA
Y, 1978
CURRENT METER OBSERVATIONS C3
0 MINUTE AVERAGES)
DUMBARTON BRIDGE
37-31-10N 12
2- 7-57W
METER
18 FEET ABOVE BE
D. TAPE NUMBER GS008A1
.
APPENDIX B
-60-
-19-
% OF OBSERVATIONS% OF OBSERVATIONS
r\)-DCO
73 COM CD CO C-H
T]
m m
o <moo m
"Drn
CO
m m
c*
H X) rn o H H o
20000 C ! I 2roro m i iXJO^^J
oooo2
O -I 0) O
i <D
CD Q
CJ) Q
CD
HOI
wroxj
0) Q
O) CD
CDta
I I I I
O) CD
0000
-39-
2TJCOrnn H rn-HH7DCOH
TOCO CH
QO CO
rn rn H> oo o <rn03m
H > T)m
CO
m rn
H a) rn o H H o
20000 C ! itaro- m i iPD toxl
0000
O Hc/>- o
I <D >01 I
HOI
Hro OM>
Ci)&CD CD
CD
OF OBSERVATIONS% OF OBSERVATIONS
IU Ul
01
XIui
nui
cnm
xl 'JlIU
ro ru 01ro oi
roo> CD
on i00 xl 3COO
-£9-
2TJCO
HH> m-HH
OJCO CH POM
cnooCO
m mH
>CDo <mCDm
> -o m
COT>m m
Hm oH o
CO20000 C I Iooro m i i
oooo 02CO H6? O
> I CD 0)01 I
CD
cnQCD
H
HUl OS
QCD Q QCD CD QCDcn
% OF OBSERVATIONS% OF OBSERVATIONS
01 i 00 xlsroo
% OF OBSERVATIONS
2TDCOrnH-jHH>rn-i-i7DC/>H
03 CO
TIrn rn H
DO o <rnDO rn
CO
CO"Drn rn
fi*
o H73rn o H H o
m0) 00 (O
DO ro rn i i XJCO^
oooo 02:CO Hs> o
DO Ii
I O> 01 I 00 ^Js: oo
0)
CD
CD
H
HOI
^fHT
Cro
xj
ti)
CDCD
CD
-
i i i ii i
% OF OBSERVATIONSK
» rO -4* 33 CD S»
-S9-
% OF OBSERVATIONS% OF OBSERVATIONS
2-0 COmHH
CH
O10O CO
n m
COTJm rn
rn H> oo omCD rn
H > -o rn
p<»
H
rn oH H O
20000 C 1 I
rn i i oooo 02
CO H o
00 1 CO -- - I0)
I 0>en i00^1sroo
co
en
co o®
HOI CHS
cip:
co
co coQCO
01
nui
C/5O1
xj01IU
IU fU Ul
I\JUl
-99-
20DCOmmn H:Z> mmn ;OOH
HCO> H
4^ H CO COO
XJCO TIH mornoto
DO O
mCD m
"0
m
m m o
o H3Dm oH o
20000 c i i
m i i
H o
(D
% OF OBSERVATIONS% OF OBSERVATIONS
ro 4^ CD CD tsi
sroo
-L9-
% OF OBSERVATIONSK K f\J IU CD CD
5K OF OBSERVATIONS
I I\J * 35 CD2 CO COrnm-irnrn-i
HCO > H
to H
73 CO TIM rno rnoco
rn> rnco -o orn00 Hrn 73*o rn
oHH H> O
rnCO
20000C 1 12COto rn i i
02</> H5p"C tw ^"^
M to
\a<
CD IS
CDIS
CD0® HK
KIS 4 I--*-
HOI OIS^m
QQfT| r\\O i >
S HxD ^ tmm ^£biT"^1 ^MH
NlIS CDIS ISCDCD ISCDCD «.
1 1 1 1 1 1 1
T __ ,1
- J ''
-
*j ~1
^-J 1f
'
3i i i i i i i
vai
ru 01'JlIS
'Jl
yj ^
m^°M
noi2
c/) m ^ ^ IS
KUl
roF^J
TSij
IV)
Ul
rufTI
r- \ 1 1 1
b
" J?
- 4.t
- yr
X
"* ~
» «.
1 1 1 1IS IS
CO
I ON
00
I
J.I0
CO O
Q
H
°
I« LU m
4 o U
. p
o
^
1 1
I 1
1 1
1 I
1
-
l*V
T-»
«/~
l
1 J**
"1**^
1-
1 1
1 T
%^_
1
1 I
1 1
%
25
50
75
10
0
125
150
17
5
200
225
250
40
|35
H
30
^25
I2
0
8 1
5
u.1
0
M
5
SP
EE
D
CC
M/S
D1
1 1
1 1
1 1
1 1
1 1
-
r
" J1-
^_
H
ni
y,
L ,
, ,
, ,1
,^,
, .
30 60 90 120150 180
210
240
270 300
330
360
DIRE
CTIO
N CDEG TRUED
STATISTICS: SPEED & DIRECTION
8- 1-78 TO
9- 7-78
BENECIA BRIDGE
38- 2-27N 12
2- 7-30W
METER
5 FEET ABOVE BED. TAPE NUMBER GS002A3
.
-69-
% OF OBSERVATIONS* OF OBSERVATIONS
203 COmmn-H 2 mm-H33OH
HCO >H
4^ H0)030
3D COTIN mo mcnco
m> m03 O O
mo
00 Hm 33o rn
oHH H> OID 2m
0)200 <DC 1 1
oo ro m i i
xl 0002CO Ho of\>l\> 00 1 S> 1 1 O>
CA) 1CD xjsroo
f-^^rorocDCD-^ HM-JSt LJ]tSk)UiC£itJ]i5*itJ]tS) M-JSt ro -^ tj^ QD is
£D
SSi
CO
HK
r\ *S i i «-HCJ1 O«St2 J.J..
r~\ 03o sm r\i
i i i i i i i
n ""' |
1 '
rD-
_ _
(7) }V i
si "" ~H ^^ 1i
i C^kr-J
m^ r1^ 1 wroX]
CD^^
^sj
CD CD
CD 01 «,
J
-
.
i i i i i i i
"^«i
ro01
ui
xl Ul
Tl ^
m^O |_x/-\ f\Jnoi*x H^CO'Jl C^ |gj
LA.xj 'Jl
MIS)S
ro ro enOJ r n
p(e. -i
}"I?
TLj
- JX*i
" Jjr
-r -^
«
_
-
-
-01-
% OF OBSERVATIONS
2TOCO mm-H
mmnPOOH HCO
> Hr\> H
XJCO "HH -mo mcDCo
>03o <m03m o
m m
Hm oH o z
>T)m
w^Z 00 CDC I IO3rs> m i i
vj 00 S2H
s> ororo OD I S>ro i V5
Oi ICD ^-Jsroo
5K OF OBSERVATIONS ro 4^ en 03 s
-u-
% OF OBSERVATIONS% OF OBSERVATIONS
2CDCOrnrn-H H:Z> rnrn-H3DOH
HCO > H
H
XJCO-nn
rnQConrnii
m> rnDO o ornOJm
T> m
H ^i m o HH O
200 CD C I !
m00
U) H CD * O
CD t O 0) I
I 0)
COO
dM
0)
CD
-ZL-
2/0 CO
7) H
COH f~ HCX»0
Z</>"no- rn m co H "D
rn > rnDO O O
mDO m
H 7)
o m o
H H> o"D Zm
OiZOO<D C I 1
m i i4*. 00
O Hc/> o
> i T o>
CD
U)
CDCD13 H^
HCJ1 -
^ ^ -
Cro
OF OBSERVATIONSK K fO l\) CD CD
CD CD
CD
1 1 1 1 1
k-, - rr-ij
j '
h r-Jr1
till
1 I
-
I I
% OF OBSERVATIONS
sroo
OF OBSERVATIONS
2/0 COrn-<H rn/oH33 H
HCO C/>Hr H
m rn H> oo o <rnoo rn
H > o rn
CO
CO
m m
Hm oH O
ZOXOC i I2oocncn m i i
o H co o
o> >
i o> i
srco
% OF OBSERVATIONS
ro 4* a) CDK IS
56 OF OBSERVATIONS% OF OBSERVATIONS
2X3 COmm-H rnm-HPOPQH
<co m-H*""* n oomo r co mm
mm
>CD O<mDO m o
13m m o
o H73m oH o
H > Um
0)20000 c i i 2ojcncn m i iX301 vj
ooo 02 c/> H CD * * O
> I1
O I 0)
01 I
CD
HCJl
CU
rroo
% OF OBSERVATIONS
273 COm m-i rnrnn
mn H
en "no r co -nm
mmrnncoH "D
> DO o< mDO m
H > "D
m
m m
H
m oH o
ZOOCO C I I2DO en en m i i 20 en *">!QZ CO H <S> O S> IN)-u ro
% OF OBSERVATIONS
ro
roi o>
sroo
-9L-
rnoH
XJCOOH
PO H001)0
OCO
rnz mnco
oo o
DDrn
"Drn
rn m
H73rn o H H o
c i i 2 4^ 03 cncn rn i i 73 ro ^J
en oo 02CO H® " O
(nro
tu
O)Q
CD
H
HCJl OS
vj Q
Q
CA) CD
CDcn
5K OF OBSERVATIONSK K rO fU CD CD
fU01
Ul
vj Ul
nui
vj Ul
r\j
fUro 01fUui
5K OF OBSERVATIONS
i ro 4* o^ CD
CO
rn rn
rn
o o rn
"0H o03HH
K Q
ro 01 i2:00
-Li
OF OBSERVATIONS
2T3COmoHHH>
OH H OT3O
ocom mH
oo o <moo m
TJ m
C !2 4i
m i
"0
m m
H PD m o H H o
0100o c/> H ® * O
01 ro > i ro roro i Tro
en i
% OF OBSERVATIONS
ro $> CD CDKo
rroo
OF OBSERVATIONS
213 COmo-H m/oH
01
73 V)OH
H "DO OCO
mz mncoH ID
rn rn o
> 00 om
rn
H > -o m
o H73rn oHo
C I I
m i i /oroxi
en oo oz </> H
Ol!\> > i r\>
i
% OF OBSERVATIONS
ro 4> 0)K
(D 1ST
enr>ovi oo
-6L-
% OF OBSERVATIONS
2TJCOrnoH
50 COOH
.* H
OC/>
rn:z rnHC/> H TJ
rn > rnDO ^D O
o H^3rn oH o
m03m o
"Dm
c i
m i i %j
en oo oz o
% OF OBSERVATIONS
ro
> 1
56 OF OBSERVATIONS
tS T) COrnoH
;ornH50 COOH
r\> Hou>
rnz rnnco H -o
rn > rn00 Oornoo rn
T)rn
H 50rn oHo
CO
C I I 24^ 000)01rn i i50 xl
0100
COHo
> 1 IN)roro i i ro r^ i s> vj rroo
CD
CD
CD
HCJ1
xj
03
O3to toC71
56 OF OBSERVATIONS
ro 4* :n CDK IS
-18-
21) CO mo-iHH>
X) mn73 COOH
H01 "DO
OCOTIM mzmncoH "D
m > mDO o o< POmDO m
H > ~D
m
oH
m oH H O
DOOO1m i i
0100
0> H G> O
roiIV>
% OF OBSERVATIONS% OF OBSERVATIONS
ro
acoo
-38-
32 COrn> HHCO>rn HPD>Hr co> H
oo rn o oco
rn rn H
DO o <mCD rn
H > T)rn
CO D m m
o H ;o rn oH H O
C ! ! 2^-DO 0>O1rn i i
CO o
> i ro ro i <s> i ro i
% OF OBSERVATIONS
CD
0)
CD§*8«HK HCJ1 0<S
xj
CD
CD CD
CDm
% OF OBSERVATIONS
ru (Jl
Ul
XI 'Jl
&
nui
xj 'Jl
f\J
f\J Ul
CJ1
K Sr
sroo
-C8-
% OF OBSERVATIONS% OF OBSERVATIONS
2ZCOm> HHCO>m HX)>Hr co> H 2H
oimo oco
m m H
OJomDO m
H > TJrn
co"Dm m
H X) m oH H O 2
ooocn m i i
±<X>
CO H CD * Os> ro> i ro roro i
CDQ
en Q
CD
^\\\%K HH^ HCJ1ota
xj QCD Q
CD CD QCD
roCD
01
'Jl
xj 'J\
nui
xj 'J\
ro ru uiOJoi
oo
% OF OBSERVATIONS% OF OBSERVATIONS
2OCOmenH2>moon
HH OH0)20
V)
mnco
CDo< mDO m
"Dm
mm
H ;om oH o
GO c i i2GO oo en rn i i
02CO H Q Ooro oo ro > i i XJ-*
1 O)Cfl i xjxj2:00
CD «s>O)
CO
*£m i^JB® HK HOI OQ
CD
QCD CD
CD (7) ISr
nui
com
xj Ul
ro
(U fU Ul
f\J(Jl ISr
APPENDIX C
-85-
APPENDIX C
DEPLOYMENT TAPE STATUS
NOTES:1. ALL UTR COORDINATES ME IN ZONE 10.2. HLLH DEPTH AND METER DEPTH ME ACTUALLY A HEIGHT ABOVE Ttffi BED,3. HETER TYPES: E=ENDECO* A«AANDERAA»4* MOORING TYPES: T=TAUT, PsBOTTOH PLATFORR, R=RID-LBEL PLATFORH,5* PARAMETERS MEASURED:
1=SPEED, 2SDIRECHON» 3=TEHPERATW?Et 4=CONDUCTIVITY, 5:PRESSURE»6. DATA PROCESSING STEPS:
1--8-TRACK TAPE TRANSLATED2--DATA EDITED3-DATA TRANSLATED TO 2 KIN ENGINEERING UNITS 4=DATA AVERAGED 5=DATA PLOTTED
7. DATA QUALITY KEY: 1=HO DATA2-DATA ALHOST COMPLETELY UNUSABLE 3=SOME LONG HISSING OR ll^ELJABLE SECTION 4=SOME GLITCHES OR SHORT UNRELIABLE SECTIONS 5-EXCELLENT DATA
-86-
DEPLOYMENTS BETWEEN 1 78 AND 365 78
COMPLETED DEPLOYMENTS
LAT LON UTM STATION HLLU IMETERS AT MTR TAPE HTR HOR PARAtt- DEPLMT RECVRY MRS DEB H1N DE6 MIN NORTH EAST NUMBER DEPTH STA t TYPE DEP NUMBER f TYP ETERS DATE DATE DATA
38. 2.6 121* 53.9 211.0 596.7 8S1 50 E E E 43 6S001A1 39 T 12340 214 78 250 78 865
DATA HAS BEEN PROCESSED THROUGH STEP 5QUALITY OF DATA FOR TEMPERATURE IS 5 . QUALITY OF DATA FOR CONDUCTIVITY IS 5 . QUALITY OF DATA FOR DIRECTION IS 5QUALITY OF DATA FOR SPEED IS 5 , QUALITY OF DATA FOR PRESSURE IS 1 .COMMENTStMINIMUN CONDUCTIVITY THRESHOLD TOO HIGH
38. 2.6 121. 53.9 211.0 596.7 3S1 50 E E E 24 6S001A2 41 T 12340 214 78 250 78 865
DATA HAS BEEN PROCESSED THROUGH STEP 5QUALITY OF DATA FOR TEMPERATURE IS 5 . QUALITY OF DATA FOR CONDUCTIVITY IS 2 . QUALITY OF DATA FOR DIRECTION IS 5QUALITY OF DATA FOR SPEED IS 5 . QUALITY OF DATA FOR PRESSURE IS 1 .COMHENTSJCONDUCTIVITY CORRECTION UNSTABLECONDUCTIVITY BAD.
38. 2.6 121.53.9 211.0596.7 6S1 50 E E E 5 6S001A3 42 T 12340 21478 25078 865
DATA HAS BEEN PROCESSED THROUGH STEP 5QUALITY OF DATA FOR TEMPERATURE IS 5 . QUALITY OF DATA FOR CONDUCTIVITY IS 4 . QUALITY OF DATA FOR DIRECTION IS 4QUALITY OF DATA FOR SPEED IS 5 . QUALITY OF DATA FOR PRESSURE IS 1 .COMMENTStCOND CORfi DECREASING RAPIDLY AT TAPE ENDCOND. DEFECTIVE BEYOND DAY 246.86COW. BELOW THRESHOLD IN SPOTS
38. 2.6 121. 53.9 211.0 596.7 GS1 50 E E E 24 6S001B2 35 T 12340 255 78 286 78 743
DATA HAS BEEN PROCESSED THROUGH STEP 5QUALITY OF DATA FOR TEMPERATURE IS 1 . QUALITY OF DATA FOR CONDUCTIVITY IS 5 . QUALITY OF DATA FOR DIRECTION IS 4QUALITY OF DATA FOR SPEED IS 5 . QUALITY OF DATA FOR PRESSURE IS 1 .CONMENTSJTEHPERATURE DATA ARE BAD.COND BELOW THRESHOLD
38. 2.6 121. 53.9 211.0 596.7 6S1 50 E E E 5 6S001B3 42 T 12340 255 78 286 78 743
DATA HAS BEEN PROCESSED THROUGH STEP 5QUALITY OF DATA FOR TEMPERATURE IS 5 . QUALITY OF DATA FOR CONDUCTIVITY IS 5 . QUALITY OF DATA FOR DIRECTION IS 4QUALITY OF DATA FOR SPEED IS 5 . QUALITY OF DATA FOR PRESSURE IS 1 .
-87-
COMHENTSiCOND BELOW THRESHOLD
38* 2*5 122. 7,5 210*6 576*8 682 50 E E E 43 GS002A1 35 T 12340 214 78 249 78 849
DATA HAS BEEN PROCESSED THROUGH STEP 5QUALITY OF DATA FOR TEMPERATURE IS 3 . QUALITY OF DATA FOR CONDUCTIVITY IS 5 * QUALITY OF DATA FOR DIRECTION IS 4QUALITY OF DATA FOR SPEED IS 5 . QUALITY OF DATA FOR PRESSURE IS 1 *CQHNENTSJTEHPERATURE VALUES BAD BEYOND JULIAN DAY 233
38* 2*5 122. 7*5 210*6 576*8 6S2 50 E E E 24 SS002A2 38 T 12340 214 78 249 78 849
DATA HAS BEEN PROCESSED THROUGH STEP 5QUALITY OF DATA FOR TEHPERATURE IS 1 * QUALITY OF DATA FOR CONDUCTIVITY IS 5 * QUALITY OF DATA FOR DIRECTION IS 5QUALITY OF DATA FOR SPEED IS 3 * QUALITY OF DATA FOR PRESSURE IS 1 *COHHENTS:TEHPERATURE VALUES INCORRECT*SPEED ENCODER DROPPING BITS LAST HALF OF TAPE*
38* 2.5 122* 7*5 210*6 576*8 6S2 50 E E E 5 6S002A3 37 T 12340 214 78 249 78 849
DATA HAS BEEN PROCESSED THROUGH STEP 5QUALITY OF DATA FOR TEHPERATURE IS 2 » QUALITY OF DATA FOR CONDUCTIVITY IS 5 * QUALITY OF DATA FOR DIRECTION IS 5QUALITY OF DATA FOR SPEED IS 5 * QUALITY OF DATA FOR PRESSURE IS 1 .CQHHENTSiTEHPERATURE BAD BEYOND DAY 10 OF RECORD*
38* 2*5 122* 7*5 210.6576*8 6S2 50 E E E 43 6S002B1 39 T 12340 25578 28678 754
DATA HAS BEEN PROCESSED THROUGH STEP 5QUALITY OF DATA FOR TEMPERATURE IS 5 * QUALITY OF DATA FOR CONDUCTIVITY IS 5 * QUALITY OF DATA FOR DIRECTION IS 5QUALITY OF DATA FOR SPEED IS 5 * QUALITY OF DATA FOR PRESSURE IS 1 *COHHENTSJSEVERAL HOURS OF DRAGGING TO RECOVER ARRAY
38* 2*5 122* 7*5 210*6 576.8 6S2 50 E E E 24 6S002B2 38 T 12340 255 78 286 78 754
DATA HAS BEEN PROCESSED THROUGH STEP 5QUALITY OF DATA FOR TEHPERATURE IS 1 * QUALITY OF DATA FOR CONDUCTIVITY IS 5 * QUALITY OF DATA FOR DIRECTION IS 5QUALITY OF DATA FOR SPEED IS 4 * QUALITY OF DATA FOR PRESSURE IS 1 *CQHMENTSJSPEED ENCODER DROPPING BITS AT TAPE END*TEHPERATURE DATA BAD
-88-
38. 2.5 122. 7.5 210.6 576.8 6S2 50 E E E 5 6S002B3 31 T 12340 255 78 286 78 754
DATA HAS BEEN PROCESSED THROUGH STEP 5QUALITY OF DATA FOR TEMPERATURE IS 4 . QUALITY OF DATA FOR CONDUCTIVITY IS 4 . QUALITY OF DATA FOR DIRECTION IS 4QUALITY OF DATA FOR SPEED IS 4 . QUALITY OF DATA FOR PRESSURE IS 1 .COMNENTSJ51 HOURS OF DATA MISSING AFTER HOUR 32.
38. 5.6 122. 1.1 216.4586.1 6S3 25 E E 18 6S003A1 36 T 12340 250 78 286 78 868
DATA HAS BEEN PROCESSED THROUGH STEP 5QUALITY OF DATA FOR TEMPERATURE IS 5 . QUALITY OF DATA FOR CONDUCTIVITY IS 5 . QUALITY OF DATA FOR DIRECTION IS 5QUALITY OF DATA FOR SPEED IS 5 . QUALITY OF DATA FOR PRESSURE IS 1 .COHHENTS:CONSIDERABLE MARINE GROWTH ALL COMPONENTSCOND. BELOW THRESHOLD IN SPOTS
38. 5.6 122. 1.1 216.4586.1 GS3 25 E E 5 6S003A2 33 T 12340 250 78 286 78 868
DATA HAS BEEN PROCESSED THROUGH STEP 5QUALITY OF DATA FOR TEMPERATURE IS 5 . QUALITY OF DATA FOR CONDUCTIVITY IS 5 . QUALITY OF DATA FOR DIRECTION IS 4QUALITY OF DATA FOR SPEED IS 5 . QUALITY OF DATA FOR PRESSURE IS 1 .COHMENTSJCOND BELOH THRESHOLD IN SPOTS
38. 5.8 122. 4.0 216.7 581.8 6S4 25 E E 18 6S004A1 34 T 12340 250 78 286 78 870
DATA HAS BEEN PROCESSED THROUGH STEP 5QUALITY OF DATA FOR TEMPERATURE IS 5 . QUALITY OF DATA FOR CONDUCTIVITY IS 5 . QUALITY OF DATA FOR DIRECTION IS 5QUALITY OF DATA FOR SPEED IS 5 . QUALITY OF DATA FOR PRESSURE IS 1 .COMMENTS:ARRAY RECOVERED I.SMI WEST OF LOGGED DEPLOYMENTSITE AT MK6 RATHER THAN HK8
38. 5.8 122. 4.0 216.7 581.8 6S4 25 E E 5 GS004A2 40 T 12340 250 78 286 78 870
DATA HAS BEEN PROCESSED THROUGH STEP 5QUALITY OF DATA FOR TEMPERATURE IS 5 . QUALITY OF DATA FOR CONDUCTIVITY IS 5 . QUALITY OF DATA FOR DIRECTION IS 4QUALITY OF DATA FOR SPEED IS 5 . QUALITY OF DATA FOR PRESSURE IS 1 .COMMENTS:
-89-
37, 45.4 122* 21*9 178*2 555*9 6S5 40 E E E 28 6S005A1 36 T 12340 319 78 345 78 624
DATA HAS DEEM PROCESSED THROUGH STEP 5QUALITY OF DATA FOR TEMPERATURE IS 5 * QUALITY OF DATA FOR CONDUCTIVITY IS 5 * QUALITY OF DATA FOR DIRECTION IS 5QUALITY OF DATA FOR SPEED IS 5 » QUALITY OF DATA FOR PRESSURE IS 1 *COMHENTS:POSSIDLE SPEED DEGRADATION FROH HARINE GROWTH,
37* 45*4 122* 21*9 178*2 555*9 6S5 40 E E E 16 GS005A2 42 T 12340 319 78 345 78 624
DATA HAS BEEN PROCESSED THROUGH STEP 5QUALITY OF DATA FOR TEMPERATURE IS 5 . QUALITY OF DATA FOR CONDUCTIVITY IS 5 . QUALITY OF DATA FOR DIRECTION IS 5QUALITY OF DATA FOR SPEED IS 5 * QUALITY OF DATA FOR PRESSURE IS 1 *COHHENTSJSOHE SPEED DEGRADATION FROH HARINE GROWTH*
37* 45.4 122* 21.9 178.2 555*9 GS5 40 E E E 5 GS005A3 34 T 12340 319 78 345 78 624
DATA HAS BEEN PROCESSED THROUGH STEP 5QUALITY OF DATA FOR TEMPERATURE IS 5 . QUALITY OF DATA FOR CONDUCTIVITY IS 5 * QUALITY OF DATA FOR DIRECTION IS 5QUALITY OF DATA FOR SPEED IS 5 . QUALITY OF DATA FOR PRESSURE IS 1 *COHKNTS:BRQKEN IMPELLER BLADE* HEAVY HARINE GROWTH EFFECTING SPEED.
37*46*2 122.21*3 180*3556.8 SS6 60 E E E 43 6S006A1 40 T 12340 31978 34578 626
DATA HAS BEEN PROCESSED THROUGH STEP 5QUALITY OF DATA FOR TEMPERATURE IS 5 . QUALITY OF DATA FOR CONDUCTIVITY IS 5 . QUALITY OF DATA FOR DIRECTION IS 5QUALITY OF DATA FOR SPEED IS 5 . QUALITY OF DATA FOR PRESSURE IS 1 .COHHENTSUHPELLER RESTRICTED DUE TO A PLASTIC SHEET IN IMPELLER,
37* 46*2 122. 21.3 180*3 556.8 BS6 60 E E E 24 6S006A2 41 T 12340 319 78 345 78 626
DATA HAS BEEN PROCESSED THROUGH STEP 5QUALITY OF DATA FOR TEMPERATURE IS 5 . QUALITY OF DATA FOR CONDUCTIVITY IS 5 . QUALITY OF DATA FOR DIRECTION IS 5QUALITY OF DATA FOR SPEED IS 5 * QUALITY OF DATA FOR PRESSURE IS 1 .COMMENTS: is HOURS OF DATA HISSING AT TIHE HETER LEFT WATER, FIRSTCONDUCTIVITY CORRECTION EDITED,
37* 46.2 122. 21*3 180*3 556.8 6S6 60 E E E 5 GS006A3 38 T 12340 319 78 345 78 626
DATA HAS BEEN PROCESSED THROUGH STEP 5-90-
QUALITY OF DATA FOR TEMPERATURE IS 5 . QUALITY OF DATA FOR CONDUCTIVITY IS 5 QUALITY OF DATA FOR SPEED IS 5 . QUALITY OF DATA FOR PRESSURE IS 1 . COMMENTS: MODERATE EFFECT ON SPEED DY MARINE GROWTH,
QUALITY OF DATA FOR DIRECTION IS 5
37, 46.2 122. 20.0 180.3 558*7 BS7 30 EE 18 GS007A1 39 T 12340 319 78 345 78 624
DATA HAS DEEN PROCESSED THROUGH STEP 5QUALITY OF DATA FOR TEMPERATURE IS 1 . QUALITY OF DATA FOR CONDUCTIVITY IS 5 . QUALITY OF DATA FOR DIRECTION IS 5QUALITY OF DATA FOR SPEED IS 5 . QUALITY OF DATA FOR PRESSURE IS 1 .COMMENTStTEMPERATURE DATA ARE DAD.
37. 46.2 122. 20.0 180.3 558.7 6S7 30 EE 5 GS007A2 31 T 12340 319 78 345 78 624
DATA HAS DEEN PROCESSED THROUGH STEP 5QUALITY OF DATA FOR TEMPERATURE IS 4 . QUALITY OF DATA FOR CONDUCTIVITY IS 4QUALITY OF DATA FOR SPEED IS 4 » QUALITY OF DATA FOR PRESSURE IS 1 .CQMNENTS.FIRST CONDUCTIVITY CORRECTION IMS EDITED. 6 HOURS OF PARTIALOR MISSING DATA (HOUR 26 TO 32).POSSIBLE SMALL EFFECT FROM GROWTH
QUALITY OF DATA FOR DIRECTION IS 4
37. 31.2 122. 8.0 152.7 576.6 6S8 30 EE 18 6S008A1 33 T 12340 319 78 345 78 24
DATA HAS BEEN PROCESSED THROUGH STEP 5QUALITY OF DATA FOR TEMPERATURE IS 2 . QUALITY OF DATA FOR CONDUCTIVITY IS 2 QUALITY OF DATA FOR SPEED IS 2. » QUALITY OF DATA FOR PRESSURE IS 1 . COMMENTStDEFECTIVE TAPE-ONLY ONE DAY OF DATA
QUALITY OF DATA FOR DIRECTION IS 2
-91-
Related Documents
