globec northeast pacific, coastal gulf of alaska · 2005-02-03 · globec cruise report, r/v alpha...
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GLOBEC Cruise Report, R/V Alpha Helix (HX 244), 17 May - 31 May, 2001 1
GLOBEC Northeast Pacific, Coastal Gulf of Alaska
Cruise Report, R/V Alpha Helix (HX 244)
17 May – 31 May 2001
GLOBEC Cruise Report, R/V Alpha Helix (HX 244), 17 May - 31 May, 2001 2
GLOBEC Northeast Pacific, Coastal Gulf of Alaska
Cruise Report, R/V Alpha Helix (HX 244)
17 May – 31 May 2001
Chief Scientist:Suzanne StromShannon Point Marine CenterWestern Washington University1900 Shannon Point RoadAnacortes, WA 98221 360-293-2188E-mail: [email protected]
Port of Departure: Seward, AlaskaPort of Return: Seward, Alaska
Cruise Goals / Scientific Purpose
The GLOBEC Northeast Pacific program seeks to understand the relationship between climate variability and thesuccess of marine fish, bird and mammal populations. In the coastal Gulf of Alaska, the program focuses on themechanisms by which climate and weather can influence the physical - chemical structure of the coastal zone, howthis in turn affects the coastal planktonic food web, and how food web variations influence distribution and recruit-ment success of pink salmon. The process cruises specifically will be conducted 3 times in 2001 and 3 times in2003. On each cruise the aim is to visit four sites representing a diversity of physical - chemical conditions in thecoastal Gulf of Alaska. At each of these core sites, rates of phytoplankton growth, zooplankton grazing and zoop-lankton egg production will be measured, as well as aspects of phytoplankton and zooplankton community structure.These measurements will be related to the physical - chemical environment by means of vertical profiling at theprocess stations themselves, sampling of a “fine-scale” grid around each of the core process stations, and use of datacollected on LTOP cruises. Data collected will ultimately be compared to related data from the Oregon coastalupwelling system.
The May cruise focused on spring phytoplankton bloom processes, and the responses of the zooplankton communityto mid and late bloom conditions.
Cruise Objectives
1. Determine phytoplankton growth rates and rates of microzooplankton herbivory.2. Determine rates of grazing on phyto- and microzooplankton by dominant copepod taxa including Neocalanus
and smaller calanoids. Live net collections are summarized in Table 2.3. Measure rates of egg production by copepods Calanus, Pseudocalanus, Metridia and others4. Assess vertical distribution of temperature, salinity, light, nutrients, chlorophyll and microzooplankton at core
process stations and fine-scale grid stations (Table 3).5. Conduct net tows (CalVET, MOCNESS) for distribution and abundance of zooplankton at core process stations.
MOCNESS tows are summarized in Table 4; CalVET and CalVET53 net tows in Tables 5 and 6.
Summaries of each of the GLOBEC projects may be found at the web site: http://globec.coas.oregonstate.edu/groups/nep/projs.html.
GLOBEC Cruise Report, R/V Alpha Helix (HX 244), 17 May - 31 May, 2001 3
Table 1. GLOBEC Cruise ParticipantsChristine Baier Copepod grazing/egg prod., AFSC (F), [email protected] Lanksbury Copepod grazing/egg prod., AFSC (F)Hongbin Liu Neocalanus grazing, LUMCON (M), [email protected] Lawrence Neocalanus grazing, LUMCON (M), [email protected] Olson Microzoo grazing, WWU (M), [email protected] Kast Microzoo grazing, WWU (F), [email protected] Macri Chlorophyll/nutrients, WWU (F), [email protected] Bright Chlorophyll/nutrients, WWU (F)Moon Sookmi CTD/ADCP, UAF (F)Steve Hartz Marine tech, UAF (M)Dave Aldrich Marine tech, UAF (M)
AFSC = Alaska Fisheries Science Center (NOAA); LUMCON = Louisiana Universities Marine Consortium; WWU =Western Washington University.
Summary of Cruise
See Appendix 1 (Event Log).
Daily Cruise Summary (Narrative)
17 May. Departed Seward 0921 ADT. Proceeded directly to our outer shelf core station OS-C (GAK-10). Immedi-ately following initial CTD profiling, commenced grazing experiments. Continued day/night cycle of work asoutlined above, completing daytime grid station survey on 18 May and night MOCNESS/CalVET sampling on nightsof 17-18 May, 18-19 May, and 19-20 May. Additional Seward Line stations GAK-11, -12, -13, -9, –8i, and 8 wereprofiled while working in this vicinity. Three sets of grazing experiments (microzooplankton, Neocalanus, othercalanoids) were run at OS-C.
20 May. Proceeded to the mid-shelf core station MS-C (GAK-6). Conducted CalVET tows for copepod egg ratios,established one microzooplankton grazing experiment, and conducted a deep CTD cast with full suite of samplestaken. Then left due to rough weather. Transited to inner shelf but high winds and seas precluded work there.Proceeded to Prince William Sound.
21 - 23 May. Work in PWS included 3 sets of grazing experiments, 3 night CalVET / MOCNESS tow series, andseveral egg production experiments all initiated at core sampling station PWS-2. Fine-scale grid survey aroundPWS-2 was conducted on 21 May. Additional CTD sections at Montague Strait (23 May) and a CTD / FlowCAMsurvey of Port Nellie Juan and Blue Fjords (22 May) were also undertaken.
23 – 24 May. Returned to inner shelf and conducted CTD casts in a transect across the Alaska Coastal Currentregion (GAK4 to GAK 1i, with additional stations ACC-1 and ACC-2 added on either side of GAK-2) to determinelocation of current. High surface fluorescence at GAK-4 indicated a phytoplankton bloom in progress, also sug-gested for the region by a SeaWiFS image from 20 May. Decided to shift mid-shelf focus to GAK-4 to examine rateprocesses in this potentially large mid-shelf feature.
24 – 27 May. Conducted 4 sets of grazing experiments (2 in bloom, 2 outside of bloom), 4 night CalVET / MOC-NESS tow series (ditto), and several egg production experiments.
25 - 26 May. Conducted fine-scale grid sampling. Several additional CTD and seachest transects were run toestablish the location of the bloom, which was changeable on an hourly basis. Oh, for a mesoscale survey compo-nent to this program.
GLOBEC Cruise Report, R/V Alpha Helix (HX 244), 17 May - 31 May, 2001 4
28 May. Conducted CTD transect of inner shelf (GAK3 to GAK1i). Selected station ACC1 as mostrepresentative of the core of the Alaska Coastal Current. This region was also dominated by a diatombloom variable in intensity but consistently associated with the lower salinity, higher temperature surfacewaters of the ACC. Conducted 3 sets of grazing experiments, several egg production experiments, and 3rounds of night CalVET / MOCNESS tow series all centered on core station ACC1.
29 May. Fine-scale grid survey of the region surrounding ACC1 was undertaken. CTD transects across thecoastal current (GAK3 to GAK 1i or 1) were conducted an additional 3 times while working in this region,to define variability in the location of the current.
31 May. CTD survey of the Cape Fairfield line was completed en route to Seward. The Helix returned tothe dock at Seward at 1853.
The cooperative attitude and hard work of Captain Bill Rook and the crew of the R.V. Alpha Helix are muchappreciated, and contributed in large part to the success of this cruise.
Summary of Sampling Operations
Daytime Activities:
1. Collected ADCP, sea surface salinity, temperature and fluorescence data using sensors in the seachest, both whileunderway and while on station.
2. Occupied core process stations on the outer shelf (GAK-10), mid-shelf (GAK-6; GAK-4 and vicinity), inner shelf(ACC-1) and Prince William Sound (PWS-2) and conducted vertical CTD profiles (to near bottom, as for LTOPcruises) for determination of T, S, light (PAR) and in situ fluorescence distribution.
3. Collected discrete water samples from CTD cast (8 to 10 depths per cast) for measurement of nutrients (frozen foranalysis by C. Mordy), size-fractionated chlorophyll (<5 µm, 5 – 20 µm, >20 µm, analyzed on board), algal pigments(frozen for HPLC analysis by S. Strom) and microzooplankton abundance (acid Lugol’s-fixed samples for invertedmicroscopy, gluataraldehyde-fixed samples for epifluorescence microscopy). (Activities 2 and 3 were conductedupon arrival and at approx. local noon each day on station, with a reduced set of sample types taken during all butfirst cast on station.)
4. Conducted net tows (CalVET, Ring net) for preserved samples (zooplankton abundance, copepod egg abundance)and live animals (grazing and egg production experiment set-up).
5. Used CTD to collect water from upper mixed layer for set-up of dilution experiments (phytoplankton growth andmicrozooplankton grazing rates), copepod grazing experiments, and microplankton size-fractionation experiments.
6. Occupied fine-scale grid stations (generally 8) surrounding each core station (see attached charts) and conductedvertical profiling (as in #2) and water bottle sampling (as in #3, but with only 5 depths per cast, water samplescollected for nutrient and size-fractionated chlorophyll analysis).
Nighttime Activities:
1. Conducted MOCNESS and CalVET tows once each night while on core process stations.
2. Conduct night CTD/water sample profiling at core process station (see above).
GLOBEC Cruise Report, R/V Alpha Helix (HX 244), 17 May - 31 May, 2001 5
Summary of Process Studies
Microplankton Studies (Strom, Olson, Macri, Kast, Bright)
Vertical profiles for phyto- and microzooplankton abundance and species composition were taken at all core stations.A total of 14 seawater dilution experiments were conducted on board, with all experiments sampled for size-fractionated chlorophyll, phytoplankton pigments (HPLC) and microplankton community composition. Intrinsicgrowth rates up to 1 per d were observed in diatom bloom waters. Enrichment of dilution series with nutrients, incomparison with unenriched controls, indicated that post-bloom waters in PWS and most bloom waters in the GAK4region and in the ACC were nutrient limited. Large cells (>20 um) typically showed the highest degree of nutrientlimitation.
Preliminary results indicate that microzooplankton grazing rates were usually highest on the small (<5 um) and mid-sized (5 – 20 um) phytoplankton cells. Moderate grazing on large diatoms by microzooplankton was observed in allbloom waters.
The FlowCAM was used extensively to characterize the microplankton at each station and to analyze the shifts inparticle size spectrum and community composition during copepod grazing experiments. Low chlorophyll watersnear GAK-4 were dominated by chloroplast-retaining ciliates including Laboea, while diatom bloom waters on themid-shelf and in the ACC contained a mixture of Chaetoceros, Skeletonema, and other large chain-forming genera.
Egg Production and Diet Studies (Baier and Lanksbury)
We conducted a total of 6 grazing, 18 egg production, and 11 egg viability experiments. At stations where eggproduction experiments were collected, samples were collected for CHN (32) and RNA/DNA (18) analyses. Tripli-cate CALVET tows were made the first and last morning at each station, when possible, to determine the ratio offemales to eggs.
At the OS station, Eucalanus females were collected for a grazing experiment, egg production, and CHN samples. AtIS, PWS, MS blue water stations (GAK4 and 4GC), and MS bloom stations (4IW, 4GJ, and EXP11),Pseudocalanus females were used for all experiments and samples collected. In addition, Calanus marshallaefemales were used at PWS, and Metridia females at EXP11. Only one egg production and grazing experiment wascompleted with Metridia. We returned to this station 3 days later in an attempt to collect more, but though the watercolumn structure did not appear to have changed, no Metridia females were found. At the original MS station, noneof our target species were found in sufficient numbers to conduct experiments.
Neocalanus Grazing Experiments (Liu And Lawrence)
During cruise HX244 (May 17 – May 31), we conducted 13 Neocalanus grazing experiments. Neocalanus was mostabundant at the out-shelf station with all three species occurring. Neocalanus abundance was low at the inner-shelfstation and in the Prince William Sound. Various numbers of Neocalanus copepodids were added to each experi-mental bottle, usually duplicates of 4 different treatments plus a control. Chlorophyll-a concentrations in 3 sizefractions (< 5, 5 – 20 and > 20 mm) were measured at the beginning and end of the experiment. Water samples weretaken at the beginning and end of the incubation for FlowCam analysis of phytoplankton and microzoograzercompositions. In addition, samples from each incubation bottle were preserved in Lugol’s solution andgluteraldehyde (for making slides on board) for additional identification of microzooplankton. Similar to the resultsof the last cruise (HX242), we found that, in most cases, Neocalanus feed mainly on the phytoplankton cells largerthan 20 mm. We saw very little grazing and sometimes a positive cascading effect on the < 5 mm fraction. It is
possible that grazing pressure of microzooplankton on the < 5 mm cells were released as a result of Neocalanusfeeding on protozoan grazers.
Additionally, Neocalanus samples were frozen in liquid nitrogen for future analyses of dry weight, element composi-tion and lipid content at each core station. Water samples were also taken at each core station and from selectedexperiments for flow cytometric analysis of picophytoplankton and bacteria abundance.
GLOBEC Cruise Report, R/V Alpha Helix (HX 244), 17 May - 31 May, 2001 6
Tabl
e 2:
Col
lect
ion
of L
ive
Ani
mal
s fo
r S
hipb
oard
Exp
erim
ents
Eve
nt#
Inst
rC
ast
Sta
Sta
Day
Mos
Tim
eLa
tLo
ngW
ater
Cas
tS
IC
omm
ents
std
Dep
thD
epth
HX
13
70
1.0
2Li
veN
et1
1G
AK
101
75
20
15
58
.54
06
-14
8.2
13
81
46
45
0D
agg
ev#0
02;
live
anim
als
HX
13
70
1.0
3Li
veN
et2
1G
AK
101
75
20
29
58
.54
00
-14
8.2
19
81
46
41
00
Dag
gev
#003
; liv
e an
imal
sH
X1
37
01
.04
Live
Net
31
GA
K10
17
52
04
85
8.5
39
1-1
48
.22
87
14
04
10
0D
agg
ev#0
04;
live
anim
als
HX
13
80
1.0
2Li
veN
et4
1G
AK
101
85
07
20
58
.53
87
-14
8.2
18
01
46
55
0N
ap
pe
v#0
11H
X1
38
01
.03
Live
Net
51
GA
K10
18
50
73
45
8.5
40
8-1
48
.211
31
46
51
00
Na
pp
ev#
01
2H
X1
39
01
.04
Live
Net
611
GA
K10
19
50
70
45
8.5
39
7-1
48
.21
25
14
70
50
Da
gg
ev#
02
8H
X1
39
01
.05
Live
Net
711
GA
K10
19
50
71
35
8.5
39
3-1
48
.21
23
14
70
10
0D
ag
ge
v#0
29
HX
14
00
1.1
1Li
veN
et8
19
GA
K6
20
50
85
75
9.1
17
3-1
48
.77
23
15
0n
dn
de
v#0
48
HX
14
00
1.1
2Li
veN
et9
19
GA
K6
20
50
91
55
9.1
16
2-1
48
.77
00
15
0n
dn
de
v#0
49
HX
14
10
1.0
8Li
veN
et1
02
0P
WS
22
15
07
27
60
.53
48
-14
7.8
03
37
43
10
0n
de
v#0
58
HX
14
10
1.0
9Li
veN
et11
20
PW
S2
21
50
73
86
0.5
35
2-1
47
.80
83
74
31
00
nd
ev#
05
9H
X1
41
01
.10
Live
Net
12
20
PW
S2
21
50
75
36
0.5
34
7-1
47
.80
28
74
74
0S
trom
ev#0
60;
live
anim
al t
owH
X1
41
01
.14
Live
Net
13
20
PW
S2
21
51
32
66
0.5
35
0-1
47
.80
48
74
71
00
nd
ev#
06
4H
X1
41
01
.15
Live
Net
14
20
PW
S2
21
51
33
96
0.5
37
2-1
47
.811
67
47
10
0n
ap
pe
v#0
65
HX
14
10
1.1
6Li
veN
et1
52
0P
WS
22
15
13
51
60
.53
95
-14
7.8
16
77
24
10
0N
ap
pe
v#0
66
HX
14
10
1.3
0Li
veN
et1
63
4P
WS
22
15
23
06
60
.53
57
-14
7.8
01
87
40
40
nd
ev#
08
0H
X1
41
01
.31
Live
Net
17
34
PW
S2
21
52
31
36
0.5
35
7-1
47
.80
33
74
04
0n
de
v#0
81
HX
14
20
1.0
4Li
veN
et1
83
4P
WS
22
25
07
32
60
.53
52
-14
7.8
03
67
35
50
Dag
gev
#086
; liv
e an
imal
tow
HX
14
20
1.0
5Li
veN
et1
93
4P
WS
22
25
07
43
60
.53
50
-14
7.8
02
47
35
75
Dag
gev
#087
; liv
e an
imal
tow
HX
14
20
1.0
8Li
veN
et2
03
4P
WS
22
25
13
04
60
.53
53
-14
7.8
03
07
35
10
0N
ap
pev
#090
; eg
g pr
oduc
tion
HX
14
20
1.0
9Li
veN
et2
13
4P
WS
22
25
13
18
60
.53
73
-14
7.8
04
57
35
10
0N
ap
pe
v#0
91
HX
14
20
1.1
0Li
veN
et2
23
4P
WS
22
25
13
32
60
.53
80
-14
7.8
00
57
35
50
Dag
gev
#092
; co
pepo
d dr
y w
t.H
X1
43
01
.06
Live
Net
23
44
PW
S2
23
50
80
96
0.5
34
7-1
47
.80
17
74
01
00
Na
pp
ev#1
10;
live
anim
als
HX
14
30
1.0
7Li
veN
et2
44
4P
WS
22
35
08
26
60
.53
25
-14
7.8
02
47
35
10
0N
ap
pev
#111
; liv
e an
imal
sH
X1
43
01
.08
Live
Net
25
44
PW
S2
23
50
83
16
0.5
31
8-1
47
.80
26
73
55
0D
agg
ev#1
12;
live
anim
als
HX
14
30
1.0
9Li
veN
et2
64
4P
WS
22
35
08
40
60
.53
06
-14
7.8
02
97
35
10
0D
ag
ge
v#11
3H
X1
44
01
.11
Live
Net
27
58
GA
K4
24
50
73
95
9.4
06
3-1
49
.04
83
19
91
00
Na
pp
ev#1
32;
egg
prod
uctio
nH
X1
44
01
.12
Live
Net
28
58
GA
K4
24
50
75
25
9.4
05
7-1
49
.04
77
19
91
00
Na
pp
ev#1
33;
egg
prod
uctio
nH
X1
44
01
.13
Live
Net
29
58
GA
K4
24
50
80
35
9.4
05
5-1
49
.04
72
19
97
5D
agg
ev#1
34;
Neo
cala
nus
HX
14
40
1.2
4Li
veN
et3
06
64I
W2
45
19
13
59
.26
37
-14
9.2
73
02
00
10
0S
trom
ev#1
45;
egg
prod
uctio
nH
X1
45
01
.07
Live
Net
31
69
4IW
25
50
72
95
9.2
63
7-1
49
.27
18
13
91
00
Na
pp
ev#
15
4H
X1
45
01
.08
Live
Net
32
69
4IW
25
50
73
95
9.2
63
7-1
49
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42
13
91
00
Na
pp
ev#
15
5H
X1
45
01
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Live
Net
33
69
4IW
25
50
75
15
9.2
63
7-1
49
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68
13
95
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ap
pe
v#1
56
HX
14
50
1.1
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veN
et3
46
94I
W2
55
08
15
59
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53
-14
9.2
77
21
39
10
0N
ap
pe
v#1
57
HX
14
50
1.1
8Li
veN
et3
57
24G
C2
55
15
57
59
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03
-14
9.2
41
61
72
10
0N
ap
pev
#165
; eg
g pr
oduc
tion
HX
14
50
1.1
9Li
veN
et3
67
24G
C2
55
16
06
59
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95
-14
9.2
44
91
72
60
Na
pp
ev#1
66;
egg
prod
uctio
nH
X1
46
01
.04
Live
Net
37
79
GA
K4
26
50
81
05
9.4
07
2-1
49
.04
79
20
01
00
Na
pp
ev#
17
8H
X1
46
01
.05
Live
Net
38
79
GA
K4
26
50
82
65
9.4
09
4-1
49
.05
16
20
01
00
Na
pp
ev#
17
9H
X1
46
01
.06
Live
Net
39
79
GA
K4
26
50
83
75
9.4
09
5-1
49
.05
17
20
05
0N
ap
pe
v#1
80
HX
14
70
1.0
1Li
veN
et4
08
64I
W2
75
06
36
59
.26
35
-14
9.2
77
81
45
10
0D
agg
ev#1
93;
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m g
one!
HX
14
80
1.1
1Li
veN
et4
11
00
AC
C1
28
50
82
65
9.7
18
8-1
49
.36
47
24
25
0D
agg
ev#2
21;
Neo
cala
nus
HX
14
80
1.1
2Li
veN
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21
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C1
28
50
83
95
9.7
28
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49
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25
24
21
00
Na
pp
ev#2
22;
egg
prod
uctio
nH
X1
48
01
.13
Live
Net
43
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12
85
08
50
59
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45
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9.3
64
22
42
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pev
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; eg
g pr
oduc
tion
HX
14
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41
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29
50
70
05
9.7
27
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49
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32
24
21
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Na
pp
ev#
23
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X1
49
01
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Live
Net
45
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12
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07
16
59
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60
-14
9.3
66
22
42
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pe
v#2
37
HX
14
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1.0
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veN
et4
61
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C1
29
50
73
05
9.7
25
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49
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98
24
27
6D
agg
ev#2
38;
Neo
cala
nus
HX
14
90
1.0
8Li
veN
et4
71
07
AC
C1
29
51
30
05
9.7
28
7-1
49
.36
12
24
31
00
Na
pp
ev#2
42;
egg
prod
uctio
nH
X1
49
01
.09
Live
Net
48
10
7A
CC
12
95
13
15
59
.72
52
-14
9.3
65
82
43
10
0N
ap
pev
#243
; eg
g pr
oduc
tion
GLOBEC Cruise Report, R/V Alpha Helix (HX 244), 17 May - 31 May, 2001 7
Tabl
e 2:
Col
lect
ion
of L
ive
Ani
mal
s fo
r S
hipb
oard
Exp
erim
ents
(co
nt’d
)E
vent
#In
str
Cas
tS
taS
taD
ayM
osTi
me
Lat
Long
Wat
erC
ast
SI
Com
men
tsst
dD
epth
Dep
th
HX
15
00
1.0
5Li
veN
et4
91
20
AC
C1
30
50
72
55
9.7
28
8-1
49
.37
20
24
7n
dD
ag
ge
v#2
63
HX
15
00
1.0
6Li
veN
et5
01
20
AC
C1
30
50
73
85
9.7
28
2-1
49
.37
95
24
7n
dD
ag
ge
v#2
64
HX
15
00
1.0
8Li
veN
et5
11
20
AC
C1
30
50
83
05
9.7
27
8-1
49
.37
07
24
3n
dD
ag
ge
v#2
66
HX
15
10
1.0
2Li
veN
et5
21
29
EX
P11
31
50
53
05
9.1
42
3-1
49
.21
40
14
51
00
Na
pp
ev#2
80;
egg
prod
uctio
nH
X1
51
01
.04
Live
Net
53
13
0C
F15
31
50
81
55
9.5
17
7-1
48
.86
57
17
37
5D
agg
ev#2
82;
Neo
cala
nus
GLOBEC Cruise Report, R/V Alpha Helix (HX 244), 17 May - 31 May, 2001 8
HX
13
70
1.0
1C
TD
11
1G
AK
101
75
19
30
58
.54
04
-14
8.2
13
51
46
45
62
Str
om
ev#
00
1;
HX
13
70
1.0
5C
TD
12
1G
AK
101
75
211
35
8.5
42
2-1
48
.21
32
14
58
50
Str
omev
#005
;wat
er f
or f
swH
X1
37
01
.06
CT
D1
31
GA
K10
17
52
14
95
8.5
39
4-1
48
.22
13
14
46
50
Str
omev
#006
;gra
zing
exp
t #1
HX
13
70
1.0
8C
TD
14
1G
AK
101
75
23
22
58
.54
09
-14
8.2
14
11
46
15
00
Str
om
ev#
00
8;
HX
13
80
1.0
4C
TD
15
1G
AK
101
85
08
03
58
.54
18
-14
8.2
12
01
45
05
0S
trom
ev#0
13;w
ater
for
fsw
HX
13
80
1.0
5C
TD
26
1G
AK
101
85
08
54
58
.54
07
-14
8.2
118
14
65
50
Str
omev
#014
;gra
zing
exp
t #2
6.5
mH
X1
38
01
.06
CT
D1
71
GA
K10
18
51
20
95
8.5
40
1-1
48
.21
37
14
65
14
60
Str
om
ev#
01
5;
HX
13
80
1.0
7C
TD
18
1G
AK
101
85
14
17
58
.54
06
-14
8.2
07
01
48
61
47
9S
trom
ev#0
16;r
eter
min
ated
and
slip
rings
che
cked
HX
13
80
1.0
8C
TD
19
2O
SG
A1
85
16
25
58
.59
09
-14
8.4
38
52
33
23
0S
trom
ev#0
17;O
S g
rid s
urve
yH
X1
38
01
.09
CT
D1
10
3G
AK
9I1
85
17
19
58
.60
97
-14
8.2
78
96
90
70
1S
tro
me
v#0
18
;H
X1
38
01
.10
CT
D1
114
OS
GC
18
51
84
15
8.6
61
5-1
48
.11
96
81
55
07
Str
om
ev#
01
9;
HX
13
80
1.1
1C
TD
11
25
OS
GE
18
51
93
95
8.5
76
5-1
48
.05
39
81
55
00
Str
om
ev#
02
0;
HX
13
80
1.1
2C
TD
11
36
OS
GH
18
52
03
65
8.4
99
3-1
47
.98
35
21
54
50
0S
tro
me
v#0
21
;H
X1
38
01
.13
CT
D1
14
7G
AK
10I
18
52
13
75
8.4
63
4-1
48
.14
13
17
23
15
03
Str
om
ev#
02
2;
HX
13
80
1.1
5C
TD
11
58
GA
K10
18
52
33
85
8.5
41
2-1
48
.20
90
14
71
50
0S
tro
me
v#0
24
;H
X1
39
01
.02
CT
D1
16
9O
SG
D1
95
01
27
58
.50
39
-14
8.3
69
46
46
50
0S
tro
me
v#0
26
;H
X1
39
01
.03
CT
D1
17
10
OS
GF
19
50
23
75
8.4
28
0-1
48
.29
83
13
40
50
0S
tro
me
v#0
27
;H
X1
39
01
.06
CT
D1
18
11G
AK
101
95
07
33
58
.54
12
-14
8.2
10
71
47
05
0S
trom
ev#0
30;w
ater
for
fsw
HX
13
90
1.0
7C
TD
11
911
GA
K10
19
50
81
95
8.5
40
7-1
48
.21
55
14
70
50
Str
omev
#031
;gra
zing
exp
t #3
HX
13
90
1.0
8C
TD
12
011
GA
K10
19
511
59
58
.54
20
-14
8.2
116
14
62
14
60
Str
om
ev#
03
2;
HX
13
90
1.0
9C
TD
12
11
2G
AK
111
95
14
21
58
.38
78
-14
8.0
70
51
43
61
43
6S
trom
ev#0
33;S
ewar
d Li
ne s
urve
yH
X1
39
01
.10
CT
D1
22
13
GA
K12
19
51
62
85
8.2
43
6-1
47
.93
23
21
68
21
68
Str
om
ev#
03
4;
HX
13
90
1.1
1C
TD
12
31
4G
AK
131
95
18
39
58
.09
87
-14
7.7
91
42
09
52
09
5S
tro
me
v#0
35
;H
X1
39
01
.13
CT
D1
24
15
GA
K10
19
52
30
55
8.5
42
4-1
48
.21
22
14
70
50
0S
tro
me
v#0
37
;H
X1
40
01
.03
CT
D1
25
16
GA
K9
20
50
33
35
8.6
80
4-1
48
.35
14
27
82
78
Str
omev
#040
;Sew
ard
Line
sur
vey
HX
14
00
1.0
4C
TD
12
61
7G
AK
8I2
05
04
21
58
.74
35
-14
8.4
20
82
89
28
9S
tro
me
v#0
41
;H
X1
40
01
.05
CT
D1
27
18
GA
K8
20
50
50
55
8.7
91
9-1
48
.49
10
29
02
90
Str
om
ev#
04
2;
HX
14
00
1.1
0C
TD
12
81
9G
AK
62
05
08
29
59
.11
74
-14
8.7
70
21
51
50
Str
omev
#047
;gra
zing
exp
. #4
HX
14
00
1.1
3C
TD
12
91
9G
AK
62
05
12
04
59
.11
67
-14
8.7
72
11
51
15
0S
tro
me
v#0
50
;H
X1
41
01
.01
CT
D1
30
20
PW
S2
21
50
05
66
0.5
34
6-1
47
.80
57
74
92
00
Str
om
ev#
05
1;
HX
14
10
1.1
1C
TD
13
12
0P
WS
22
15
08
08
60
.53
69
-14
7.8
04
67
47
74
7S
tro
me
v#0
61
;H
X1
41
01
.12
CT
D1
32
20
PW
S2
21
51
00
76
0.5
36
2-1
47
.80
46
74
75
0S
trom
ev#0
62;w
ater
for
fsw
HX
14
10
1.1
3C
TD
13
32
0P
WS
22
15
10
46
60
.53
41
-14
7.7
97
97
47
50
Str
omev
#063
;gra
zing
exp
# 5
HX
14
10
1.1
7C
TD
13
42
1P
WS
GA
21
51
42
46
0.5
95
6-1
47
.82
84
39
22
00
Str
omev
#067
;PW
S g
rid s
urve
yH
X1
41
01
.18
CT
D1
35
22
PW
SG
B2
15
15
07
60
.58
20
-14
7.7
63
47
70
20
0S
tro
me
v#0
68
;H
X1
41
01
.19
CT
D1
36
23
PW
SG
C2
15
15
43
60
.56
26
-14
7.6
78
57
70
20
0S
tro
me
v#0
69
;H
X1
41
01
.20
CT
D1
37
24
PW
GD
21
51
63
56
0.5
51
5-1
47
.87
21
49
32
00
Str
om
ev#
07
0;
HX
14
10
1.2
1C
TD
13
82
5P
WG
E2
15
17
07
60
.51
44
-14
7.8
97
82
25
20
0S
tro
me
v#0
71
;H
X1
41
01
.22
CT
D1
39
26
PW
GF
21
51
74
26
0.4
99
7-1
47
.83
30
52
92
00
Str
om
ev#
07
2;
HX
14
10
1.2
3C
TD
14
02
7P
WG
G2
15
18
12
60
.49
05
-14
7.7
91
82
12
20
0S
tro
me
v#0
73
;H
X1
41
01
.24
CT
D1
41
28
PW
GH
21
51
85
26
0.4
41
7-1
47
.88
62
33
82
00
Str
om
ev#
07
4;
HX
14
10
1.2
5C
TD
14
22
9P
WS
P1
21
51
92
66
0.4
36
8-1
47
.92
67
23
82
21
Str
omev
#075
;Kni
ght
Is.
Pas
sage
sur
vey
HX
14
10
1.2
6C
TD
14
33
0P
WS
P2
21
51
94
76
0.4
32
8-1
47
.90
75
29
22
95
Str
om
ev#
07
6;
HX
14
10
1.2
7C
TD
14
43
1P
WS
P3
21
52
01
86
0.4
28
5-1
47
.88
19
29
23
86
Str
om
ev#
07
7;
HX
14
10
1.2
8C
TD
14
53
2P
WS
P4
21
52
04
86
0.4
24
1-1
47
.86
25
28
02
42
Str
om
ev#
07
8;
HX
14
10
1.2
9C
TD
14
63
3P
WS
P5
21
52
111
60
.42
06
-14
7.8
46
91
45
13
0S
tro
me
v#0
79
;H
X1
42
01
.01
CT
D1
47
34
PW
S2
22
50
00
26
0.5
34
5-1
47
.80
98
74
02
00
Str
om
ev#
08
3;
HX
14
20
1.0
3C
TD
14
83
4P
WS
22
25
07
05
60
.53
39
-14
7.8
04
27
35
50
Str
omev
#085
;wat
er f
or f
sw
Tabl
e 3:
CT
D C
asts
Eve
nt#
Inst
rC
ast
Sta
Sta
Day
Mos
Tim
eLa
tLo
ngW
ater
Cas
tS
IC
omm
ents
std
Dep
thD
epth
GLOBEC Cruise Report, R/V Alpha Helix (HX 244), 17 May - 31 May, 2001 9
Tabl
e 3:
CT
D C
asts
(co
nt’d
)E
vent
#In
str
Cas
tS
taS
taD
ayM
osTi
me
Lat
Long
Wat
erC
ast
SI
Com
men
tsst
dD
epth
Dep
th
HX
14
20
1.0
6C
TD
24
93
4P
WS
22
25
08
33
60
.53
35
-14
7.8
04
37
35
50
Str
omev
#088
;gra
zing
exp
# 6
HX
14
20
1.0
7C
TD
25
03
4P
WS
22
25
110
86
0.5
35
8-1
47
.80
40
73
57
35
nd
ev#
08
9;
HX
14
20
1.1
1C
TD
15
13
4P
WS
22
25
14
14
60
.53
52
-14
7.8
02
87
35
29
5n
de
v#0
93
;H
X1
42
01
.12
CT
D1
52
35
PN
J12
25
16
00
60
.59
34
-14
8.1
70
15
05
15
4S
trom
ev#0
94;F
jord
sur
vey:
Por
t N
ellie
Jua
nH
X1
42
01
.13
CT
D1
53
36
PN
J22
25
17
08
60
.57
67
-14
8.2
06
56
23
15
0n
de
v#0
95
;H
X1
42
01
.14
CT
D1
54
37
PN
J32
25
17
39
60
.55
47
-14
8.2
41
05
53
15
5S
trom
ev#0
96;C
TD
pro
blem
sH
X1
42
01
.15
CT
D1
55
38
PN
J42
25
18
16
60
.53
31
-14
8.2
68
35
25
15
4S
tro
me
v#0
98
;H
X1
42
01
.16
CT
D1
56
39
PN
J52
25
18
48
60
.50
49
-14
8.2
75
22
83
15
6S
tro
me
v#0
99
;H
X1
42
01
.17
CT
D1
57
40
BF
12
25
19
10
60
.49
18
-14
8.2
58
71
54
10
0n
dev
#100
;Fjo
rd s
urve
y: B
lue
Fjo
rdH
X1
42
01
.18
CT
D1
58
41
BF
22
25
19
31
60
.46
63
-14
8.2
49
21
89
15
1n
de
v#1
01
;H
X1
42
01
.19
CT
D1
59
42
BF
32
25
20
00
60
.43
48
-14
8.2
81
21
01
10
1n
dev
#102
;toe
of U
ltram
arin
e G
laci
erH
X1
42
01
.21
CT
D1
60
43
PW
S2
22
52
34
16
0.5
36
0-1
47
.80
37
74
22
00
Str
om
ev#
10
4;
HX
14
30
1.0
5C
TD
16
14
4P
WS
22
35
07
26
60
.53
30
-14
7.8
04
77
40
50
Str
omev
#109
;wat
er f
or f
swH
X1
43
01
.10
CT
D1
62
44
PW
S2
23
50
85
76
0.5
34
8-1
47
.80
55
73
55
0N
ap
pev
#114
;gra
zing
exp
. #
7H
X1
43
01
.11
CT
D1
63
44
PW
S2
23
51
20
16
0.5
34
9-1
47
.80
35
73
77
29
Str
omev
#115
;Mon
tagu
e S
trai
t su
rvey
HX
14
30
1.1
2C
TD
16
44
5M
S1
23
51
63
25
9.9
53
1-1
47
.92
85
16
81
61
Str
om
ev#
116
;H
X1
43
01
.13
CT
D1
65
46
MS
22
35
16
53
59
.94
34
-14
7.8
94
51
95
16
1S
tro
me
v#11
7;
HX
14
30
1.1
4C
TD
16
64
7M
S3
23
51
71
55
9.9
31
0-1
47
.85
68
16
51
62
nd
ev#
118
;H
X1
43
01
.15
CT
D1
67
48
MS
42
35
17
43
59
.92
04
-14
7.8
28
811
01
05
Str
om
ev#
119
;H
X1
43
01
.16
CT
D1
68
49
GA
K4
23
52
24
45
9.4
07
7-1
49
.04
71
20
01
97
Str
omev
#120
;AC
C s
urve
yH
X1
43
01
.17
CT
D1
69
50
GA
K3I
23
52
32
75
9.4
82
0-1
49
.11
72
20
52
02
Str
om
ev#
12
1;
HX
14
40
1.0
1C
TD
17
05
1G
AK
32
45
00
115
9.5
53
4-1
49
.18
93
21
42
11S
tro
me
v#1
22
;H
X1
44
01
.02
CT
D1
71
52
GA
K2I
24
50
05
75
9.6
27
3-1
49
.25
91
21
52
10
Str
om
ev#
12
3;
HX
14
40
1.0
3C
TD
17
25
3G
AK
22
45
01
41
59
.69
25
-14
9.3
29
12
30
22
6S
tro
me
v#1
24
;H
X1
44
01
.04
CT
D1
73
54
AC
C1
24
50
20
95
9.7
30
3-1
49
.36
34
24
02
38
Str
om
ev#
12
5;
HX
14
40
1.0
5C
TD
17
45
5G
AK
1I2
45
02
40
59
.76
75
-14
9.3
97
42
62
26
3S
tro
me
v#1
26
;H
X1
44
01
.06
CT
D1
75
56
GA
K1
24
50
32
65
9.8
45
5-1
49
.46
69
27
42
68
Str
om
ev#
12
7;
HX
14
40
1.0
7C
TD
17
65
7A
CC
22
45
04
59
59
.65
87
-14
9.2
93
12
21
21
4S
tro
me
v#1
28
;H
X1
44
01
.14
CT
D1
77
58
GA
K4
24
50
82
05
9.4
05
2-1
49
.04
69
18
95
0S
trom
ev#1
35;w
ater
for
fsw
HX
14
40
1.1
5C
TD
17
85
8G
AK
42
45
09
37
59
.40
79
-14
9.0
48
01
95
50
Str
omev
#136
;gra
zing
exp
. #
8H
X1
44
01
.16
CT
D1
79
58
GA
K4
24
51
20
05
9.4
08
7-1
49
.04
75
20
02
00
Str
om
ev#
13
7;
HX
14
40
1.1
7C
TD
18
05
9G
AK
4I2
45
12
53
59
.33
53
-14
8.9
77
31
97
19
0S
trom
ev#1
38;S
ewar
d Li
ne s
urve
yH
X1
44
01
.18
CT
D1
81
60
GA
K5
24
51
33
85
9.2
61
8-1
48
.90
77
17
01
65
Str
om
ev#
13
9;
HX
14
40
1.1
9C
TD
18
26
1G
AK
5I2
45
14
23
59
.19
05
-14
8.8
37
71
70
16
0S
tro
me
v#1
40
;H
X1
44
01
.20
CT
D1
83
62
GA
K6
24
51
511
59
.11
40
-14
8.7
66
01
52
14
6S
tro
me
v#1
41
;H
X1
44
01
.21
CT
D1
84
63
5W2
45
17
22
59
.19
10
-14
9.1
99
41
65
51
nd
ev#1
42;S
earc
hing
for
the
blo
omH
X1
44
01
.22
CT
D1
85
64
4IW
24
51
75
65
9.2
64
0-1
49
.27
50
14
25
0n
de
v#1
43
;H
X1
44
01
.23
CT
D1
86
65
4W2
45
18
34
59
.33
45
-14
9.3
45
21
65
50
Na
pp
ev#
14
4;
HX
14
40
1.2
6C
TD
18
76
7G
AK
42
45
23
40
59
.40
92
-14
9.0
50
72
00
20
0n
de
v#1
47
;H
X1
45
01
.03
CT
D1
88
68
HP
72
55
05
35
59
.18
41
-14
9.5
02
31
47
10
0S
tro
me
v#1
50
;H
X1
45
01
.11
CT
D1
89
69
4IW
25
50
84
25
9.2
64
0-1
49
.27
35
13
95
0S
trom
ev#1
58;w
ater
for
fsw
HX
14
50
1.1
2C
TD
19
06
94I
W2
55
09
47
59
.26
45
-14
9.2
73
91
39
50
Str
omev
#159
;gra
zing
exp
. #
9H
X1
45
01
.13
CT
D1
91
69
4IW
25
51
20
25
9.2
65
9-1
49
.28
17
13
91
39
Str
omev
#160
;wro
ng d
epth
s sa
mpl
edH
X1
45
01
.14
CT
D1
92
69
4IW
25
51
22
55
9.2
65
9-1
49
.28
17
13
98
0S
tro
me
v#1
61
;H
X1
45
01
.15
CT
D1
93
70
4GA
25
51
35
95
9.2
69
2-1
49
.46
24
14
61
41
Str
omev
#162
;4iW
grid
sur
vey
HX
14
50
1.1
6C
TD
19
47
14
GB
25
51
44
75
9.3
40
1-1
49
.34
57
14
61
42
Str
om
ev#
16
3;
HX
14
50
1.1
7C
TD
19
57
24
GC
25
51
53
85
9.4
10
9-1
49
.23
28
17
21
69
Str
om
ev#
16
4;
HX
14
50
1.2
0C
TD
19
67
34G
G2
55
16
45
59
.33
70
-14
9.1
61
71
72
19
3S
tro
me
v#1
67
;
GLOBEC Cruise Report, R/V Alpha Helix (HX 244), 17 May - 31 May, 2001 10
Tabl
e 3:
CT
D C
asts
(co
nt’d
)E
vent
#In
str
Cas
tS
taS
taD
ayM
osTi
me
Lat
Long
Wat
erC
ast
SI
Com
men
tsst
dD
epth
Dep
th
HX
14
50
1.2
1C
TD
19
77
44G
K2
55
17
32
59
.26
29
-14
9.0
89
11
65
16
1S
tro
me
v#1
68
;H
X1
45
01
.22
CT
D1
98
75
4GJ
25
51
82
25
9.1
91
9-1
49
.20
08
16
71
63
Str
om
ev#
16
9;
HX
14
50
1.2
3C
TD
19
97
64G
I2
55
19
18
59
.11
94
-14
9.3
16
31
32
13
3S
tro
me
v#1
70
;H
X1
45
01
.24
CT
D1
10
07
74G
F2
55
20
06
59
.19
41
-14
9.3
80
81
37
13
4S
tro
me
v#1
71
;H
X1
45
01
.26
CT
D1
10
17
84I
W2
55
23
38
59
.26
28
-14
9.2
75
21
47
13
7S
tro
me
v#1
73
;H
X1
46
01
.07
CT
D1
10
27
9G
AK
42
65
08
48
59
.40
89
-14
9.0
47
72
00
50
Str
omev
#181
;wat
er f
or f
swH
X1
46
01
.08
CT
D2
10
37
9G
AK
42
65
09
46
59
.40
83
-14
9.0
46
71
98
50
Str
omev
#182
;gra
zing
exp
erim
ent
# 10
HX
14
60
1.0
9C
TD
11
04
79
GA
K4
26
51
20
15
9.4
09
1-1
49
.05
112
00
20
0S
tro
me
v#1
83
;H
X1
46
01
.10
CT
D1
10
57
9G
AK
42
65
12
36
59
.40
90
-14
9.0
48
82
00
19
6S
tro
me
v#1
84
;H
X1
46
01
.11
CT
D1
10
68
04G
D2
65
14
26
59
.48
19
-14
9.1
17
22
04
19
9S
trom
ev#1
85;G
AK
4 gr
id s
urve
yH
X1
46
01
.12
CT
D1
10
78
14G
E2
65
15
19
59
.55
26
-14
9.0
03
11
83
17
6S
tro
me
v#1
86
;H
X1
46
01
.13
CT
D1
10
88
24G
H2
65
16
00
59
.47
87
-14
8.9
32
41
84
18
1S
tro
me
v#1
87
;H
X1
46
01
.14
CT
D1
10
98
34
GM
26
51
64
75
9.4
04
9-1
48
.86
23
16
91
65
Str
om
ev#
18
8;
HX
14
60
1.1
5C
TD
111
08
44G
L2
65
17
38
59
.33
55
-14
8.9
80
81
99
19
4S
tro
me
v#1
89
;H
X1
46
01
.17
CT
D1
111
85
GA
K4
26
52
33
95
9.4
111
-14
9.0
48
12
00
19
6S
tro
me
v#1
91
;H
X1
47
01
.02
CT
D1
112
87
4GJ
27
50
84
75
9.1
90
0-1
49
.20
12
16
25
0S
trom
ev#2
00;w
ater
for
fsw
HX
14
70
1.0
3C
TD
211
38
74G
J2
75
10
13
59
.19
05
-14
9.2
02
51
65
50
Str
omev
#201
;blo
om g
one!
HX
14
70
1.0
4C
TD
211
48
8E
XP
112
75
10
47
59
.14
10
-14
9.2
13
51
44
50
Str
omev
#202
;gra
zing
exp
erim
ent
# 11
HX
14
70
1.0
5C
TD
111
58
8E
XP
112
75
12
05
59
.14
20
-14
9.2
15
31
44
14
4S
tro
me
v#2
03
;H
X1
47
01
.06
CT
D1
116
89
GA
K6
27
51
50
65
9.0
79
3-1
48
.73
41
15
01
47
Str
omev
#204
;Sew
ard
Line
sur
vey
HX
14
70
1.0
7C
TD
111
79
0G
AK
6I2
75
15
23
59
.04
61
-14
8.7
00
21
92
18
4S
tro
me
v#2
05
;H
X1
47
01
.08
CT
D1
118
91
GA
K7
27
51
61
25
8.9
71
2-1
48
.63
20
24
52
35
Str
om
ev#
20
6;
HX
14
70
1.0
9C
TD
111
99
2G
AK
7I2
75
17
08
58
.88
21
-14
8.5
60
53
03
29
0S
tro
me
v#2
07
;H
X1
47
01
.10
CT
D1
12
09
3E
XP
112
75
23
34
59
.14
23
-14
9.2
16
01
45
14
2S
tro
me
v#2
08
;H
X1
48
01
.01
CT
D1
12
19
4G
AK
32
85
02
58
59
.55
33
-14
9.1
89
12
25
20
9S
trom
ev#2
11;A
CC
sur
vey
HX
14
80
1.0
2C
TD
11
22
95
GA
K2I
28
50
34
35
9.6
27
4-1
49
.25
69
22
52
12
Str
om
ev#
21
2;
HX
14
80
1.0
3C
TD
11
23
96
AC
C2
28
50
41
35
9.6
59
5-1
49
.29
09
21
92
18
Str
om
ev#
21
3;
HX
14
80
1.0
4C
TD
11
24
97
GA
K2
28
50
44
45
9.6
91
2-1
49
.32
78
22
82
27
Str
om
ev#
21
4;
HX
14
80
1.0
5C
TD
11
25
98
AC
C1
28
50
51
65
9.7
28
3-1
49
.36
09
24
22
9S
tro
me
v#2
15
;H
X1
48
01
.06
CT
D1
12
69
8A
CC
12
85
06
37
59
.72
90
-14
9.3
63
02
42
24
0S
tro
me
v#2
16
;H
X1
48
01
.07
CT
D1
12
79
9G
AK
1I2
85
07
19
59
.76
60
-14
9.4
01
32
63
25
8S
tro
me
v#2
17
;H
X1
48
01
.14
CT
D1
12
81
00
AC
C1
28
51
00
05
9.7
21
2-1
49
.36
18
24
27
5S
trom
ev#2
24;w
ater
for
fsw
HX
14
80
1.1
5C
TD
11
29
10
0A
CC
12
85
10
16
59
.72
86
-14
9.3
61
82
42
75
Str
omev
#225
;gra
zing
exp
. #
12H
X1
48
01
.16
CT
D1
13
01
00
AC
C1
28
51
40
75
9.7
24
7-1
49
.36
30
24
22
38
Str
om
ev#
22
6;
HX
14
80
1.1
7C
TD
11
31
10
1G
AK
1I2
85
14
59
59
.76
60
-14
9.3
96
92
55
25
6S
trom
ev#2
27;A
CC
sur
vey
HX
14
80
1.1
8C
TD
11
32
10
2A
CC
12
85
15
33
59
.72
85
-14
9.3
61
72
42
23
6S
tro
me
v#2
28
;H
X1
48
01
.19
CT
D1
13
31
03
GA
K2
28
51
60
55
9.6
91
9-1
49
.32
62
22
72
22
Str
om
ev#
22
9;
HX
14
80
1.2
0C
TD
11
34
10
4A
CC
22
85
16
52
59
.65
84
-14
9.2
89
42
20
21
6S
tro
me
v#2
30
;H
X1
48
01
.21
CT
D1
13
51
05
GA
K2I
28
51
70
85
9.5
53
2-1
49
.18
77
21
52
10
Str
om
ev#
23
1;
HX
14
80
1.2
2C
TD
11
36
10
6G
AK
32
85
17
49
59
.55
32
-14
9.1
87
02
15
21
2S
tro
me
v#2
32
;H
X1
48
01
.24
CT
D1
13
71
07
AC
C1
28
52
34
15
9.7
25
9-1
49
.36
76
24
22
42
Str
om
ev#
23
4;
HX
14
90
1.0
5C
TD
11
38
10
7A
CC
12
95
08
00
59
.72
82
-14
9.3
62
02
42
75
Str
omev
#239
;wat
er f
or f
swH
X1
49
01
.06
CT
D2
13
91
07
AC
C1
29
50
85
65
9.7
27
7-1
49
.36
15
24
37
5S
trom
ev#2
40;g
razi
ng e
xp.
# 13
HX
14
90
1.0
7C
TD
11
40
10
7A
CC
12
95
12
08
59
.72
57
-14
9.3
63
12
43
24
0S
tro
me
v#2
41
;H
X1
49
01
.10
CT
D1
14
11
07
AC
C1
29
51
33
35
9.7
28
7-1
49
.36
20
24
27
7S
trom
ev#2
44;fo
r sz
#4
HX
14
90
1.1
1C
TD
11
42
10
8IS
GA
29
51
42
95
9.6
83
5-1
49
.48
82
22
22
21
Str
omev
#245
;Inne
r sh
elf
grid
sur
vey
HX
14
90
1.1
2C
TD
11
43
10
9IS
GD
29
51
45
75
9.6
49
2-1
49
.45
21
27
62
61
Str
om
ev#
24
6;
HX
14
90
1.1
3C
TD
11
44
110
ISG
F2
95
15
31
59
.60
77
-14
9.4
14
52
17
21
3S
tro
me
v#2
47
;
GLOBEC Cruise Report, R/V Alpha Helix (HX 244), 17 May - 31 May, 2001 11
Tabl
e 3:
CT
D C
asts
(co
nt’d
)E
vent
#In
str
Cas
tS
taS
taD
ayM
osTi
me
Lat
Long
Wat
erC
ast
SI
Com
men
tsst
dD
epth
Dep
th
HX
14
90
1.1
4C
TD
11
45
111
GA
K3
29
51
63
25
9.5
53
8-1
49
.18
75
21
42
13
Str
om
ev#
24
8;
HX
14
90
1.1
5C
TD
11
46
112
GA
K2I
29
51
71
45
9.6
26
8-1
49
.25
82
21
52
12
Str
om
ev#
24
9;
HX
14
90
1.1
6C
TD
11
47
113
AC
C2
29
51
74
85
9.6
58
5-1
49
.29
56
22
02
20
Str
om
ev#
25
0;
HX
14
90
1.1
7C
TD
11
48
114
GA
K2
29
51
81
65
9.6
90
8-1
49
.32
92
22
72
24
Str
om
ev#
25
1;
HX
14
90
1.1
8C
TD
11
49
115
AC
C1
29
51
85
05
9.7
27
6-1
49
.36
47
24
32
36
Str
om
ev#
25
2;
HX
14
90
1.1
9C
TD
11
50
116
GA
K1I
29
51
92
05
9.7
65
8-1
49
.39
85
26
22
58
Str
om
ev#
25
3;
HX
14
90
1.2
0C
TD
11
51
117
ISG
C2
95
20
115
9.8
42
1-1
49
.30
52
10
19
6S
tro
me
v#2
54
;H
X1
49
01
.21
CT
D1
15
211
8IS
GF
29
52
03
75
9.8
07
0-1
49
.26
97
119
117
Str
om
ev#
25
5;
HX
14
90
1.2
2C
TD
11
53
119
ISG
H2
95
21
02
59
.76
98
-14
9.2
37
42
69
26
6S
tro
me
v#2
56
;H
X1
49
01
.24
CT
D1
15
41
20
AC
C1
29
52
33
85
9.7
24
7-1
49
.36
60
24
72
39
Str
om
ev#
25
8;
HX
15
00
1.0
7C
TD
11
55
12
0A
CC
13
05
08
14
59
.72
95
-14
9.3
63
52
43
75
Str
omev
#265
;wat
er f
or f
swH
X1
50
01
.09
CT
D2
15
61
20
AC
C1
30
50
91
95
9.7
28
5-1
49
.36
17
24
37
5S
trom
ev#2
67;g
razi
ng e
xp.
#14
HX
15
00
1.1
0C
TD
11
57
12
0A
CC
13
05
13
05
59
.72
81
-14
9.3
65
82
43
24
0S
tro
me
v#2
68
;H
X1
50
01
.11
CT
D1
15
81
21
GA
K3
30
51
42
65
9.5
511
-14
9.1
84
82
13
20
6S
trom
ev#2
69;A
CC
sur
vey
HX
15
00
1.1
2C
TD
11
59
12
2G
AK
2I3
05
15
12
59
.62
72
-14
9.2
58
12
13
20
6S
tro
me
v#2
70
;H
X1
50
01
.13
CT
D1
16
01
23
AC
C2
30
51
54
25
9.6
59
4-1
49
.29
47
21
82
14
Str
om
ev#
27
1;
HX
15
00
1.1
4C
TD
11
61
12
4G
AK
23
05
16
12
59
.69
21
-14
9.3
27
12
27
21
8S
tro
me
v#2
72
;H
X1
50
01
.15
CT
D1
16
21
25
AC
C1
30
51
64
45
9.7
29
2-1
49
.36
31
24
22
36
Str
om
ev#
27
3;
HX
15
00
1.1
6C
TD
11
63
12
6G
AK
1I3
05
17
22
59
.76
72
-14
9.3
97
02
62
25
6S
tro
me
v#2
74
;H
X1
50
01
.17
CT
D1
16
41
27
GA
K1
30
51
80
85
9.8
45
3-1
49
.46
47
27
22
64
Str
om
ev#
27
5;
HX
15
00
1.1
9C
TD
11
65
12
8A
CC
13
05
23
40
59
.72
80
-14
9.3
62
62
43
24
0S
tro
me
v#2
77
;H
X1
51
01
.01
CT
D1
16
61
29
EX
P11
31
50
34
25
9.1
41
5-1
49
.21
38
14
51
45
Str
om
ev#
27
9;
HX
15
10
1.0
3C
TD
11
67
13
0C
F1
53
15
07
59
59
.45
09
-14
8.8
64
01
80
18
0S
trom
ev#2
81;C
ape
Fai
rfie
ld s
urve
yH
X1
51
01
.05
CT
D1
16
81
31
CF
14
31
50
83
65
9.4
83
6-1
48
.86
83
17
01
70
Str
om
ev#
28
3;
HX
15
10
1.0
6C
TD
11
69
13
2C
F1
33
15
09
01
59
.51
79
-14
8.8
65
61
73
17
3S
tro
me
v#2
84
;H
X1
51
01
.07
CT
D1
17
01
33
CF
12
31
50
92
75
9.5
50
7-1
48
.86
79
18
51
85
Str
om
ev#
28
5;
HX
15
10
1.0
8C
TD
11
71
13
4C
F11
31
50
95
55
9.5
84
0-1
48
.86
60
17
81
78
Str
om
ev#
28
6;
HX
15
10
1.0
9C
TD
11
72
13
5C
F1
03
15
10
20
59
.61
81
-14
8.8
69
21
78
17
8S
tro
me
v#2
87
;H
X1
51
01
.11
CT
D1
17
41
37
CF
83
15
111
25
9.6
84
5-1
48
.86
84
18
11
81
Str
om
ev#
28
9;
HX
15
10
1.1
2C
TD
11
75
13
8C
F7
31
511
36
59
.71
74
-14
8.8
67
21
83
18
3S
tro
me
v#2
90
;H
X1
51
01
.13
CT
D1
17
61
39
CF
63
15
12
05
59
.74
99
-14
8.8
67
81
91
19
1S
tro
me
v#2
91
;H
X1
51
01
.14
CT
D1
17
71
40
CF
53
15
12
29
59
.78
39
-14
8.8
67
31
93
19
3S
tro
me
v#2
92
;H
X1
51
01
.15
CT
D1
17
81
41
CF
43
15
12
55
59
.81
70
-14
8.8
66
71
84
18
4S
tro
me
v#2
93
;H
X1
51
01
.16
CT
D1
17
91
42
CF
33
15
13
21
59
.85
06
-14
8.8
67
21
62
16
2S
tro
me
v#2
94
;H
X1
51
01
.17
CT
D1
18
01
43
CF
23
15
13
46
59
.88
41
-14
8.8
67
511
311
3S
tro
me
v#2
95
;H
X1
51
01
.18
CT
D1
18
11
44
CF
13
15
14
05
59
.90
92
-14
8.8
69
08
38
3S
tro
me
v#2
96
;H
X1
51
01
.19
CT
D1
18
21
45
GA
K1I
31
51
60
95
9.7
65
7-1
48
.39
75
26
57
5S
trom
ev#2
97;c
ell s
ettli
ng e
xper
imen
tH
X1
51
01
.20
CT
D1
18
31
46
GA
K1
31
51
65
05
9.8
44
9-1
49
.46
72
27
22
72
Str
om
ev#
29
8;
GLOBEC Cruise Report, R/V Alpha Helix (HX 244), 17 May - 31 May, 2001 12
HX
13
70
1.0
9M
OC
11
GA
K10
17
52
35
85
8.5
35
1-1
48
.21
63
14
83
10
0N
ap
pev
#009
; m
oc_1
HX
13
90
1.0
1M
OC
28
GA
K10
19
50
01
25
8.5
39
5-1
48
.20
81
14
86
10
0S
tro
me
v#0
25
HX
14
00
1.0
1M
OC
31
5G
AK
102
05
00
15
58
.54
18
-14
8.2
05
11
47
01
00
Str
omev
#038
; fa
iled
HX
14
00
1.0
2M
OC
41
5G
AK
102
05
01
51
58
.54
16
-14
8.2
00
51
47
01
00
Na
pp
ev#
03
9H
X1
41
01
.02
MO
C5
20
PW
S2
21
50
12
26
0.5
38
2-1
47
.80
78
74
3n
dN
ap
pev
#052
; fa
iled
HX
14
10
1.0
4M
OC
62
0P
WS
22
15
02
55
60
.53
42
-14
7.8
06
27
43
10
0N
ap
pe
v#0
54
HX
14
20
1.0
2M
OC
73
4P
WS
22
25
00
19
60
.53
70
-14
7.8
08
47
50
10
0N
ap
pe
v#0
84
HX
14
30
1.0
1M
OC
84
3P
WS
22
35
00
01
60
.53
80
-14
7.8
00
17
40
10
0N
ap
pe
v#1
05
HX
14
50
1.0
1M
OC
96
7G
AK
42
55
00
03
59
.411
7-1
49
.04
21
20
0n
dN
ap
pev
#148
; fa
iled
HX
14
50
1.0
2M
OC
10
67
GA
K4
25
50
04
35
9.4
12
3-1
49
.00
13
19
51
00
Na
pp
ev#
14
9H
X1
45
01
.27
MO
C11
78
4IW
25
52
35
45
9.2
61
8-1
49
.27
45
14
71
00
Na
pp
ev#
17
4H
X1
46
01
.18
MO
C1
28
5G
AK
42
65
23
55
59
.411
0-1
49
.05
27
20
01
00
Na
pp
ev#
19
2H
X1
47
01
.12
MO
C1
39
3E
XP
112
75
23
50
59
.14
17
-14
9.2
12
81
45
10
0N
ap
pe
v#2
10
HX
14
90
1.0
1M
OC
14
10
7A
CC
12
95
00
00
59
.71
77
-14
9.3
73
02
42
10
0N
ap
pe
v#2
35
HX
15
00
1.0
1M
OC
15
12
0A
CC
13
05
00
02
59
.71
71
-14
9.3
80
62
47
10
0S
tro
me
v#2
59
HX
15
00
1.2
0M
OC
16
12
8A
CC
13
05
23
57
59
.72
34
-14
9.3
67
82
43
10
0S
tro
me
v#2
78
Tabl
e 4:
MO
CN
ES
S S
ampl
ing
Eve
nt#
Inst
rC
ast
Sta
Sta
Day
Mos
Tim
eLa
tLo
ngW
ater
Cas
tS
IC
omm
ents
std
Dep
thD
epth
GLOBEC Cruise Report, R/V Alpha Helix (HX 244), 17 May - 31 May, 2001 13
HX
13
80
1.1
4C
alV
ET
18
GA
K10
18
52
32
85
8.5
41
2-1
48
.20
99
14
71
10
0N
ap
pe
v#0
23
HX
13
90
1.1
2C
alV
ET
21
5G
AK
101
95
22
45
58
.09
80
-14
7.7
91
41
46
01
00
Str
om
ev#
03
6H
X1
41
01
.03
Cal
VE
T3
20
PW
S2
21
50
23
26
0.5
31
0-1
47
.80
73
74
31
00
Na
pp
ev#
05
3H
X1
41
01
.32
Cal
VE
T4
34
PW
S2
21
52
33
66
0.5
34
2-1
47
.80
43
74
01
00
Na
pp
ev#
08
2H
X1
42
01
.20
Cal
VE
T5
43
PW
S2
22
52
33
06
0.5
34
7-1
47
.80
38
74
01
00
Na
pp
ev#
10
3H
X1
44
01
.25
Cal
VE
T6
67
GA
K4
24
52
33
15
9.4
08
5-1
49
.04
95
20
01
00
nd
ev#
14
6H
X1
45
01
.25
Cal
VE
T7
78
4IW
25
52
33
15
9.2
63
1-1
49
.27
35
14
71
00
Str
om
ev#
17
2H
X1
46
01
.16
Cal
VE
T8
85
GA
K4
26
52
32
95
9.4
10
3-1
49
.04
75
20
01
00
Na
pp
ev#
19
0H
X1
47
01
.11
Cal
VE
T9
93
EX
P11
27
52
34
05
9.1
42
3-1
49
.21
48
14
51
00
Str
om
ev#
20
9H
X1
48
01
.23
Cal
VE
T1
01
07
AC
C1
28
52
33
45
9.7
28
0-1
49
.36
55
24
21
00
Str
om
ev#
23
3H
X1
49
01
.23
Cal
VE
T11
12
0A
CC
12
95
23
31
59
.72
57
-14
9.3
64
62
47
10
0S
tro
me
v#2
57
HX
15
00
1.1
8C
alV
ET
12
12
8A
CC
13
05
23
29
59
.72
88
-14
9.3
63
32
43
10
0S
tro
me
v#2
76
Tabl
e 5:
Sm
all C
alV
ET
Net
Tow
sE
vent
#In
str
Cas
tS
taS
taD
ayM
osTi
me
Lat
Long
Wat
erC
ast
SI
Com
men
tsst
dD
epth
Dep
th
GLOBEC Cruise Report, R/V Alpha Helix (HX 244), 17 May - 31 May, 2001 14
HX
13
80
1.0
1C
alV
ET
53
11
GA
K10
18
50
63
45
8.5
41
0-1
48
.21
00
14
65
10
0N
ap
pev
#010
;egg
rat
io t
owH
X1
40
01
.06
Ca
lVE
T5
32
19
GA
K6
20
50
72
55
9.1
17
3-1
48
.77
08
15
01
00
nd
ev#0
43;e
gg r
atio
tow
HX
14
00
1.0
7C
alV
ET
53
31
9G
AK
62
05
07
40
59
.11
83
-14
8.7
81
21
50
10
0n
de
v#0
44
;fa
iled
HX
14
00
1.0
8C
alV
ET
53
41
9G
AK
62
05
07
56
59
.11
62
-14
8.7
70
81
50
10
0n
dev
#045
;egg
rat
io t
owH
X1
40
01
.09
Ca
lVE
T5
35
19
GA
K6
20
50
81
35
9.1
16
3-1
48
.77
30
15
01
00
nd
ev#0
46;e
gg r
atio
tow
HX
14
10
1.0
5C
alV
ET
53
62
0P
WS
22
15
06
37
60
.53
47
-14
7.8
05
07
43
10
0n
dev
#055
;egg
rat
ioH
X1
41
01
.06
Ca
lVE
T5
37
20
PW
S2
21
50
65
26
0.5
35
3-1
47
.81
25
74
31
00
nd
ev#0
56;e
gg r
atio
HX
14
10
1.0
7C
alV
ET
53
82
0P
WS
22
15
07
06
60
.53
45
-14
7.8
03
07
43
10
0n
dev
#057
;egg
rat
ioH
X1
43
01
.02
Ca
lVE
T5
39
43
PW
S2
23
50
63
46
0.5
34
8-1
47
.80
27
74
01
00
nd
ev#1
06;e
gg r
atio
HX
14
30
1.0
3C
alV
ET
53
10
43
PW
S2
23
50
64
66
0.5
34
3-1
47
.80
12
74
01
00
nd
ev#1
07;e
gg r
atio
HX
14
30
1.0
4C
alV
ET
53
114
3P
WS
22
35
06
58
60
.53
25
-14
7.8
00
37
40
10
0n
dev
#108
;egg
rat
ioH
X1
44
01
.08
Ca
lVE
T5
31
25
8G
AK
42
45
07
00
59
.40
73
-14
9.0
48
41
99
10
0N
ap
pev
#129
;egg
rat
ioH
X1
44
01
.09
Ca
lVE
T5
31
35
8G
AK
42
45
07
115
9.4
07
2-1
49
.04
82
19
91
00
Na
pp
ev#1
30;e
gg r
atio
HX
14
40
1.1
0C
alV
ET
53
14
58
GA
K4
24
50
72
25
9.4
07
2-1
49
.04
83
19
91
00
Na
pp
ev#1
31;e
gg r
atio
HX
14
50
1.0
4C
alV
ET
53
15
69
4IW
25
50
63
95
9.2
62
7-1
49
.27
35
13
91
00
Na
pp
ev#1
51;e
gg r
atio
HX
14
50
1.0
5C
alV
ET
53
16
69
4IW
25
50
65
25
9.2
62
7-1
49
.27
53
13
91
00
Na
pp
ev#1
52;e
gg r
atio
HX
14
50
1.0
6C
alV
ET
53
17
69
4IW
25
50
70
55
9.2
62
7-1
49
.27
78
13
91
00
Na
pp
ev#1
53;e
gg r
atio
HX
14
60
1.0
1C
alV
ET
53
18
79
GA
K4
26
50
73
45
9.4
08
0-1
49
.04
80
14
71
00
Na
pp
ev#1
75;e
gg r
atio
HX
14
60
1.0
2C
alV
ET
53
19
79
GA
K4
26
50
74
55
9.4
08
3-1
49
.05
07
14
71
00
Na
pp
ev#1
76;e
gg r
atio
HX
14
60
1.0
3C
alV
ET
53
20
79
GA
K4
26
50
75
65
9.4
09
3-1
49
.05
28
14
71
00
Na
pp
ev#1
77;e
gg r
atio
HX
14
80
1.0
8C
alV
ET
53
21
10
0A
CC
12
85
07
47
59
.72
83
-14
9.3
61
82
42
10
0N
ap
pev
#218
;egg
rat
ioH
X1
48
01
.09
Ca
lVE
T5
32
21
00
AC
C1
28
50
80
05
9.7
25
8-1
49
.36
32
24
21
00
Na
pp
ev#2
19;e
gg r
atio
HX
14
80
1.1
0C
alV
ET
53
23
10
0A
CC
12
85
08
12
59
.72
22
-14
9.3
63
82
42
10
0N
ap
pev
#220
;egg
rat
ioH
X1
50
01
.02
Ca
lVE
T5
32
41
20
AC
C1
30
50
63
05
9.7
28
2-1
49
.36
58
24
71
00
Na
pp
ev#2
60;e
gg r
atio
HX
15
00
1.0
3C
alV
ET
53
25
12
0A
CC
13
05
06
42
59
.72
78
-14
9.3
73
52
47
10
0N
ap
pev
#261
;egg
rat
ioH
X1
50
01
.04
Ca
lVE
T5
32
61
20
AC
C1
30
50
65
35
9.7
27
8-1
49
.37
82
24
71
00
Na
pp
ev#2
62;e
gg r
atio
Tabl
e 6:
Cal
VE
T53
Net
Tow
sE
vent
#In
str
Cas
tS
taS
taD
ayM
osTi
me
Lat
Long
Wat
erC
ast
SI
Com
men
tsst
dD
epth
Dep
th
GLOBEC Cruise Report, R/V Alpha Helix (HX 244), 17 May - 31 May, 2001 15
GLOBEC Cruise Report, R/V Alpha Helix (HX 244), 17 May - 31 May, 2001 16
GLOBEC Cruise Report, R/V Alpha Helix (HX 244), 17 May - 31 May, 2001 17
GLOBEC Cruise Report, R/V Alpha Helix (HX 244), 17 May - 31 May, 2001 18
GLOBEC Cruise Report, R/V Alpha Helix (HX 244), 17 May - 31 May, 2001 19
GLOBEC Cruise Report, R/V Alpha Helix (HX 244), 17 May - 31 May, 2001 20
GLOBEC Cruise Report, R/V Alpha Helix (HX 244), 17 May - 31 May, 2001 21
GLOBEC Cruise Report, R/V Alpha Helix (HX 244), 17 May - 31 May, 2001 22
GLOBEC Cruise Report, R/V Alpha Helix (HX 244), 17 May - 31 May, 2001 23
GLOBEC Cruise Report, R/V Alpha Helix (HX 244), 17 May - 31 May, 2001 24
APPENDIX I
HX244 EVENT LOG
GLOBEC Cruise Report, R/V Alpha Helix (HX 244), 17 May - 31 May, 2001 25
EVENT LOG CONTENTS
Column Label DescriptionEvent# Unique identifier for each line of event logInstrument (Instr) CTD1: Conductivity Temperature Depth profile collected with
Seabird SBE with 5 liter rosette, fluorescence;CTD2: Conductivity Temperature Depth profile collected with Seabird SBE with 10 liter rosette, no fluorescence;MOC: 1m2 MOCNESs with 0.505 mm mesh;LiveNet: 0.75 m diameter ring net with 0.200 mm mesh for collecting animals for experiments;CalVET: quantitative zooplankton sampling with 25 cm diameter CalVET net, equipped with 0.150 mm mesh;CalVET53: zooplankton sampling with a 25 cm diameter CalVET net, equipped with 0.053 mm mesh;CalVETQ: a quad (4 nets) CalVET — lost after 1 cast.
Cast Sequence # for a particular instrumentStation (Sta)Station Standard (Sta std)Day Local time basisMonth (Mos) Local time basisTime Local timeLatitude (Lat) Decimal degrees; north is positiveLongitude (Long) Decimal degrees; east is positiveWater Depth Depth of bottomCast Depth Maximum depth of deploymentScientific Investigator (SI)Comments
GLOBEC Cruise Report, R/V Alpha Helix (HX 244), 17 May - 31 May, 2001 26
HX
13
70
1.0
1C
TD
11
1G
AK
101
75
19
30
58
.54
04
-14
8.2
13
51
46
45
62
Str
om
ev#
00
1e
v#0
01
HX
13
70
1.0
2Li
veN
et1
1G
AK
101
75
20
15
58
.54
06
-14
8.2
13
81
46
45
0D
agg
ev#0
02;
live
ev#0
02;
live
anim
als
HX
13
70
1.0
3Li
veN
et2
1G
AK
101
75
20
29
58
.54
00
-14
8.2
19
81
46
41
00
Dag
gev
#003
; liv
eev
#003
; liv
e an
imal
sH
X1
37
01
.04
Live
Net
31
GA
K10
17
52
04
85
8.5
39
1-1
48
.22
87
14
04
10
0D
agg
ev#0
04;
live
ev#0
04;
live
anim
als
HX
13
70
1.0
5C
TD
12
1G
AK
101
75
211
35
8.5
42
2-1
48
.21
32
14
58
50
Str
omev
#005
; w
ater
ev#0
05;
wat
er f
or f
swH
X1
37
01
.06
CT
D1
31
GA
K10
17
52
14
95
8.5
39
4-1
48
.22
13
14
46
50
Str
omev
#006
; gr
azin
gev
#006
; gr
azin
g ex
pt #
1H
X1
37
01
.07
Cal
VE
TQ
11
GA
K10
17
52
31
05
8.5
40
5-1
48
.21
42
14
61
10
0N
ap
pev
#007
; qu
adev
#007
; qu
ad n
etH
X1
37
01
.08
CT
D1
41
GA
K10
17
52
32
25
8.5
40
9-1
48
.21
41
14
61
50
0S
tro
me
v#0
08
ev#
00
8H
X1
37
01
.09
MO
C1
1G
AK
101
75
23
58
58
.53
51
-14
8.2
16
31
48
31
00
Na
pp
ev#0
09;
moc
ev#0
09;
moc
1H
X1
38
01
.01
Ca
lVE
T5
31
1G
AK
101
85
06
34
58
.54
10
-14
8.2
10
01
46
51
00
Na
pp
ev#0
10;
egg
ev#0
10;
egg
ratio
tow
HX
13
80
1.0
2Li
veN
et4
1G
AK
101
85
07
20
58
.53
87
-14
8.2
18
01
46
55
0N
ap
pe
v#0
11e
v#0
11H
X1
38
01
.03
Live
Net
51
GA
K10
18
50
73
45
8.5
40
8-1
48
.211
31
46
51
00
Na
pp
ev#
01
2e
v#0
12
HX
13
80
1.0
4C
TD
15
1G
AK
101
85
08
03
58
.54
18
-14
8.2
12
01
45
05
0S
trom
ev#0
13;
wat
erev
#013
; w
ater
for
fsw
HX
13
80
1.0
5C
TD
26
1G
AK
101
85
08
54
58
.54
07
-14
8.2
118
14
65
50
Str
omev
#014
; gr
azin
gev
#014
; gr
azin
g ex
pt #
2 6.
5mH
X1
38
01
.06
CT
D1
71
GA
K10
18
51
20
95
8.5
40
1-1
48
.21
37
14
65
14
60
Str
om
ev#
01
5e
v#0
15
HX
13
80
1.0
7C
TD
18
1G
AK
101
85
14
17
58
.54
06
-14
8.2
07
01
48
61
47
9S
trom
ev#0
16;
rete
rmin
.ev
#016
; re
term
inat
ed a
nd s
liprin
gs c
heck
edH
X1
38
01
.08
CT
D1
92
OS
GA
18
51
62
55
8.5
90
9-1
48
.43
85
23
32
30
Str
omev
#017
; O
Sev
#017
; O
S g
rid s
urve
yH
X1
38
01
.09
CT
D1
10
3G
AK
9I1
85
17
19
58
.60
97
-14
8.2
78
96
90
70
1S
tro
me
v#0
18
ev#
01
8H
X1
38
01
.10
CT
D1
114
OS
GC
18
51
84
15
8.6
61
5-1
48
.11
96
81
55
07
Str
om
ev#
01
9e
v#0
19
HX
13
80
1.1
1C
TD
11
25
OS
GE
18
51
93
95
8.5
76
5-1
48
.05
39
81
55
00
Str
om
ev#
02
0e
v#0
20
HX
13
80
1.1
2C
TD
11
36
OS
GH
18
52
03
65
8.4
99
3-1
47
.98
35
21
54
50
0S
tro
me
v#0
21
ev#
02
1H
X1
38
01
.13
CT
D1
14
7G
AK
10I
18
52
13
75
8.4
63
4-1
48
.14
13
17
23
15
03
Str
om
ev#
02
2e
v#0
22
HX
13
80
1.1
4C
alV
ET
18
GA
K10
18
52
32
85
8.5
41
2-1
48
.20
99
14
71
10
0N
ap
pe
v#0
23
ev#
02
3H
X1
38
01
.15
CT
D1
15
8G
AK
101
85
23
38
58
.54
12
-14
8.2
09
01
47
15
00
Str
om
ev#
02
4e
v#0
24
HX
13
90
1.0
1M
OC
28
GA
K10
19
50
01
25
8.5
39
5-1
48
.20
81
14
86
10
0S
tro
me
v#0
25
ev#
02
5H
X1
39
01
.02
CT
D1
16
9O
SG
D1
95
01
27
58
.50
39
-14
8.3
69
46
46
50
0S
tro
me
v#0
26
ev#
02
6H
X1
39
01
.03
CT
D1
17
10
OS
GF
19
50
23
75
8.4
28
0-1
48
.29
83
13
40
50
0S
tro
me
v#0
27
ev#
02
7H
X1
39
01
.04
Live
Net
611
GA
K10
19
50
70
45
8.5
39
7-1
48
.21
25
14
70
50
Da
gg
ev#
02
8e
v#0
28
HX
13
90
1.0
5Li
veN
et7
11G
AK
101
95
07
13
58
.53
93
-14
8.2
12
31
47
01
00
Da
gg
ev#
02
9e
v#0
29
HX
13
90
1.0
6C
TD
11
811
GA
K10
19
50
73
35
8.5
41
2-1
48
.21
07
14
70
50
Str
omev
#030
; w
ater
ev#0
30;
wat
er f
or f
swH
X1
39
01
.07
CT
D1
19
11G
AK
101
95
08
19
58
.54
07
-14
8.2
15
51
47
05
0S
trom
ev#0
31;
graz
ing
ev#0
31;
graz
ing
expt
#3
HX
13
90
1.0
8C
TD
12
011
GA
K10
19
511
59
58
.54
20
-14
8.2
116
14
62
14
60
Str
om
ev#
03
2e
v#0
32
HX
13
90
1.0
9C
TD
12
11
2G
AK
111
95
14
21
58
.38
78
-14
8.0
70
51
43
61
43
6S
trom
ev#0
33;
Sew
ard
ev#0
33;
Sew
ard
Line
sur
vey
HX
13
90
1.1
0C
TD
12
21
3G
AK
121
95
16
28
58
.24
36
-14
7.9
32
32
16
82
16
8S
tro
me
v#0
34
ev#
03
4H
X1
39
01
.11
CT
D1
23
14
GA
K13
19
51
83
95
8.0
98
7-1
47
.79
14
20
95
20
95
Str
om
ev#
03
5e
v#0
35
HX
13
90
1.1
2C
alV
ET
21
5G
AK
101
95
22
45
58
.09
80
-14
7.7
91
41
46
01
00
Str
om
ev#
03
6e
v#0
36
HX
13
90
1.1
3C
TD
12
41
5G
AK
101
95
23
05
58
.54
24
-14
8.2
12
21
47
05
00
Str
om
ev#
03
7e
v#0
37
HX
14
00
1.0
1M
OC
31
5G
AK
102
05
00
15
58
.54
18
-14
8.2
05
11
47
01
00
Str
omev
#038
; fa
iled
ev#0
38;
faile
dH
X1
40
01
.02
MO
C4
15
GA
K10
20
50
15
15
8.5
41
6-1
48
.20
05
14
70
10
0N
ap
pe
v#0
39
ev#
03
9H
X1
40
01
.03
CT
D1
25
16
GA
K9
20
50
33
35
8.6
80
4-1
48
.35
14
27
82
78
Str
omev
#040
; S
ewar
dev
#040
; S
ewar
d Li
ne s
urve
yH
X1
40
01
.04
CT
D1
26
17
GA
K8I
20
50
42
15
8.7
43
5-1
48
.42
08
28
92
89
Str
om
ev#
04
1e
v#0
41
HX
14
00
1.0
5C
TD
12
71
8G
AK
82
05
05
05
58
.79
19
-14
8.4
91
02
90
29
0S
tro
me
v#0
42
ev#
04
2H
X1
40
01
.06
Ca
lVE
T5
32
19
GA
K6
20
50
72
55
9.1
17
3-1
48
.77
08
15
01
00
nd
ev#0
43;
egg
ev#0
43;
egg
ratio
tow
HX
14
00
1.0
7C
alV
ET
53
31
9G
AK
62
05
07
40
59
.11
83
-14
8.7
81
21
50
10
0n
dev
#044
; fa
iled
ev#0
44;
faile
dH
X1
40
01
.08
Ca
lVE
T5
34
19
GA
K6
20
50
75
65
9.1
16
2-1
48
.77
08
15
01
00
nd
ev#0
45;
egg
ev#0
45;
egg
ratio
tow
HX
14
00
1.0
9C
alV
ET
53
51
9G
AK
62
05
08
13
59
.11
63
-14
8.7
73
01
50
10
0n
dev
#046
; eg
gev
#046
; eg
g ra
tio t
owH
X1
40
01
.10
CT
D1
28
19
GA
K6
20
50
82
95
9.1
17
4-1
48
.77
02
15
15
0S
trom
ev#0
47;
graz
ing
ev#0
47;
graz
ing
exp.
#4
Eve
nt#
Inst
rC
ast
Sta
Sta
Day
Mos
Tim
eLa
tLo
ngW
ater
Cas
tS
IR
egC
omm
ents
std
Dep
thD
epth
GLOBEC Cruise Report, R/V Alpha Helix (HX 244), 17 May - 31 May, 2001 27
HX
14
00
1.1
1Li
veN
et8
19
GA
K6
20
50
85
75
9.1
17
3-1
48
.77
23
15
0n
dn
de
v#0
48
ev#
04
8H
X1
40
01
.12
Live
Net
91
9G
AK
62
05
09
15
59
.11
62
-14
8.7
70
01
50
nd
nd
ev#
04
9e
v#0
49
HX
14
00
1.1
3C
TD
12
91
9G
AK
62
05
12
04
59
.11
67
-14
8.7
72
11
51
15
0S
tro
me
v#0
50
ev#
05
0H
X1
41
01
.01
CT
D1
30
20
PW
S2
21
50
05
66
0.5
34
6-1
47
.80
57
74
92
00
Str
om
ev#
05
1e
v#0
51
HX
14
10
1.0
2M
OC
52
0P
WS
22
15
01
22
60
.53
82
-14
7.8
07
87
43
nd
Na
pp
ev#0
52;
faile
dev
#052
; fa
iled
HX
14
10
1.0
3C
alV
ET
32
0P
WS
22
15
02
32
60
.53
10
-14
7.8
07
37
43
10
0N
ap
pe
v#0
53
ev#
05
3H
X1
41
01
.04
MO
C6
20
PW
S2
21
50
25
56
0.5
34
2-1
47
.80
62
74
31
00
Na
pp
ev#
05
4e
v#0
54
HX
14
10
1.0
5C
alV
ET
53
62
0P
WS
22
15
06
37
60
.53
47
-14
7.8
05
07
43
10
0n
dev
#055
; eg
gev
#055
; eg
g ra
tioH
X1
41
01
.06
Ca
lVE
T5
37
20
PW
S2
21
50
65
26
0.5
35
3-1
47
.81
25
74
31
00
nd
ev#0
56;
egg
ev#0
56;
egg
ratio
HX
14
10
1.0
7C
alV
ET
53
82
0P
WS
22
15
07
06
60
.53
45
-14
7.8
03
07
43
10
0n
dev
#057
; eg
gev
#057
; eg
g ra
tioH
X1
41
01
.08
Live
Net
10
20
PW
S2
21
50
72
76
0.5
34
8-1
47
.80
33
74
31
00
nd
ev#
05
8e
v#0
58
HX
14
10
1.0
9Li
veN
et11
20
PW
S2
21
50
73
86
0.5
35
2-1
47
.80
83
74
31
00
nd
ev#
05
9e
v#0
59
HX
14
10
1.1
0Li
veN
et1
22
0P
WS
22
15
07
53
60
.53
47
-14
7.8
02
87
47
40
Str
omev
#060
; Li
veev
#060
; Li
ve a
nim
al t
owH
X1
41
01
.11
CT
D1
31
20
PW
S2
21
50
80
86
0.5
36
9-1
47
.80
46
74
77
47
Str
om
ev#
06
1e
v#0
61
HX
14
10
1.1
2C
TD
13
22
0P
WS
22
15
10
07
60
.53
62
-14
7.8
04
67
47
50
Str
omev
#062
; w
ater
ev#0
62;
wat
er f
or f
swH
X1
41
01
.13
CT
D1
33
20
PW
S2
21
51
04
66
0.5
34
1-1
47
.79
79
74
75
0S
trom
ev#0
63;
graz
ing
ev#0
63;
graz
ing
exp
# 5
HX
14
10
1.1
4Li
veN
et1
32
0P
WS
22
15
13
26
60
.53
50
-14
7.8
04
87
47
10
0n
de
v#0
64
ev#
06
4H
X1
41
01
.15
Live
Net
14
20
PW
S2
21
51
33
96
0.5
37
2-1
47
.811
67
47
10
0n
ap
pe
v#0
65
ev#
06
5H
X1
41
01
.16
Live
Net
15
20
PW
S2
21
51
35
16
0.5
39
5-1
47
.81
67
72
41
00
Na
pp
ev#
06
6e
v#0
66
HX
14
10
1.1
7C
TD
13
42
1P
WS
GA
21
51
42
46
0.5
95
6-1
47
.82
84
39
22
00
Str
omev
#067
; P
WS
ev#0
67;
PW
S g
rid s
urve
yH
X1
41
01
.18
CT
D1
35
22
PW
SG
B2
15
15
07
60
.58
20
-14
7.7
63
47
70
20
0S
tro
me
v#0
68
ev#
06
8H
X1
41
01
.19
CT
D1
36
23
PW
SG
C2
15
15
43
60
.56
26
-14
7.6
78
57
70
20
0S
tro
me
v#0
69
ev#
06
9H
X1
41
01
.20
CT
D1
37
24
PW
GD
21
51
63
56
0.5
51
5-1
47
.87
21
49
32
00
Str
om
ev#
07
0e
v#0
70
HX
14
10
1.2
1C
TD
13
82
5P
WG
E2
15
17
07
60
.51
44
-14
7.8
97
82
25
20
0S
tro
me
v#0
71
ev#
07
1H
X1
41
01
.22
CT
D1
39
26
PW
GF
21
51
74
26
0.4
99
7-1
47
.83
30
52
92
00
Str
om
ev#
07
2e
v#0
72
HX
14
10
1.2
3C
TD
14
02
7P
WG
G2
15
18
12
60
.49
05
-14
7.7
91
82
12
20
0S
tro
me
v#0
73
ev#
07
3H
X1
41
01
.24
CT
D1
41
28
PW
GH
21
51
85
26
0.4
41
7-1
47
.88
62
33
82
00
Str
om
ev#
07
4e
v#0
74
HX
14
10
1.2
5C
TD
14
22
9P
WS
P1
21
51
92
66
0.4
36
8-1
47
.92
67
23
82
21
Str
omev
#075
; K
nigh
tev
#075
; K
nigh
t Is
. P
assa
ge s
urve
yH
X1
41
01
.26
CT
D1
43
30
PW
SP
22
15
19
47
60
.43
28
-14
7.9
07
52
92
29
5S
tro
me
v#0
76
ev#
07
6H
X1
41
01
.27
CT
D1
44
31
PW
SP
32
15
20
18
60
.42
85
-14
7.8
81
92
92
38
6S
tro
me
v#0
77
ev#
07
7H
X1
41
01
.28
CT
D1
45
32
PW
SP
42
15
20
48
60
.42
41
-14
7.8
62
52
80
24
2S
tro
me
v#0
78
ev#
07
8H
X1
41
01
.29
CT
D1
46
33
PW
SP
52
15
211
16
0.4
20
6-1
47
.84
69
14
51
30
Str
om
ev#
07
9e
v#0
79
HX
14
10
1.3
0Li
veN
et1
63
4P
WS
22
15
23
06
60
.53
57
-14
7.8
01
87
40
40
nd
ev#
08
0e
v#0
80
HX
14
10
1.3
1Li
veN
et1
73
4P
WS
22
15
23
13
60
.53
57
-14
7.8
03
37
40
40
nd
ev#
08
1e
v#0
81
HX
14
10
1.3
2C
alV
ET
43
4P
WS
22
15
23
36
60
.53
42
-14
7.8
04
37
40
10
0N
ap
pe
v#0
82
ev#
08
2H
X1
42
01
.01
CT
D1
47
34
PW
S2
22
50
00
26
0.5
34
5-1
47
.80
98
74
02
00
Str
om
ev#
08
3e
v#0
83
HX
14
20
1.0
2M
OC
73
4P
WS
22
25
00
19
60
.53
70
-14
7.8
08
47
50
10
0N
ap
pe
v#0
84
ev#
08
4H
X1
42
01
.03
CT
D1
48
34
PW
S2
22
50
70
56
0.5
33
9-1
47
.80
42
73
55
0S
trom
ev#0
85;
wat
erev
#085
; w
ater
for
fsw
HX
14
20
1.0
4Li
veN
et1
83
4P
WS
22
25
07
32
60
.53
52
-14
7.8
03
67
35
50
Dag
gev
#086
; Li
veev
#086
; Li
ve a
nim
al t
owH
X1
42
01
.05
Live
Net
19
34
PW
S2
22
50
74
36
0.5
35
0-1
47
.80
24
73
57
5D
agg
ev#0
87;
Live
ev#0
87;
Live
ani
mal
tow
HX
14
20
1.0
6C
TD
24
93
4P
WS
22
25
08
33
60
.53
35
-14
7.8
04
37
35
50
Str
omev
#088
; gr
azin
gev
#088
; gr
azin
g ex
p #
6H
X1
42
01
.07
CT
D2
50
34
PW
S2
22
511
08
60
.53
58
-14
7.8
04
07
35
73
5n
de
v#0
89
ev#
08
9H
X1
42
01
.08
Live
Net
20
34
PW
S2
22
51
30
46
0.5
35
3-1
47
.80
30
73
51
00
Na
pp
ev#0
90;
egg
ev#0
90;
egg
prod
uctio
nH
X1
42
01
.09
Live
Net
21
34
PW
S2
22
51
31
86
0.5
37
3-1
47
.80
45
73
51
00
Na
pp
ev#
09
1e
v#0
91
HX
14
20
1.1
0Li
veN
et2
23
4P
WS
22
25
13
32
60
.53
80
-14
7.8
00
57
35
50
Dag
gev
#092
; co
pepo
dev
#092
; co
pepo
d dr
y w
t.H
X1
42
01
.11
CT
D1
51
34
PW
S2
22
51
41
46
0.5
35
2-1
47
.80
28
73
52
95
nd
ev#
09
3e
v#0
93
HX
14
20
1.1
2C
TD
15
23
5P
NJ1
22
51
60
06
0.5
93
4-1
48
.17
01
50
51
54
Str
omev
#094
; F
jord
ev#0
94;
Fjo
rd s
urve
y: P
ort
Nel
lie
Eve
nt#
Inst
rC
ast
Sta
Sta
Day
Mos
Tim
eLa
tLo
ngW
ater
Cas
tS
IR
egC
omm
ents
std
Dep
thD
epth
GLOBEC Cruise Report, R/V Alpha Helix (HX 244), 17 May - 31 May, 2001 28
Eve
nt#
Inst
rC
ast
Sta
Sta
Day
Mos
Tim
eLa
tLo
ngW
ater
Cas
tS
IR
egC
omm
ents
std
Dep
thD
epth
Jua
nH
X1
42
01
.13
CT
D1
53
36
PN
J22
25
17
08
60
.57
67
-14
8.2
06
56
23
15
0n
de
v#0
95
ev#
09
5H
X1
42
01
.14
CT
D1
54
37
PN
J32
25
17
39
60
.55
47
-14
8.2
41
05
53
15
5S
trom
ev#0
96;
CT
Dev
#096
; C
TD
pro
blem
sH
X1
42
01
.15
CT
D1
55
38
PN
J42
25
18
16
60
.53
31
-14
8.2
68
35
25
15
4S
tro
me
v#0
98
ev#
09
8H
X1
42
01
.16
CT
D1
56
39
PN
J52
25
18
48
60
.50
49
-14
8.2
75
22
83
15
6S
tro
me
v#0
99
ev#
09
9H
X1
42
01
.17
CT
D1
57
40
BF
12
25
19
10
60
.49
18
-14
8.2
58
71
54
10
0n
dev
#100
; F
jord
ev#1
00;
Fjo
rd s
urve
y: B
lue
Fjo
rdH
X1
42
01
.18
CT
D1
58
41
BF
22
25
19
31
60
.46
63
-14
8.2
49
21
89
15
1n
de
v#1
01
ev#
10
1H
X1
42
01
.19
CT
D1
59
42
BF
32
25
20
00
60
.43
48
-14
8.2
81
21
01
10
1n
dev
#102
; to
eev
#102
; to
e of
Ultr
amar
ine
Gla
cier
HX
14
20
1.2
0C
alV
ET
54
3P
WS
22
25
23
30
60
.53
47
-14
7.8
03
87
40
10
0N
ap
pe
v#1
03
ev#
10
3H
X1
42
01
.21
CT
D1
60
43
PW
S2
22
52
34
16
0.5
36
0-1
47
.80
37
74
22
00
Str
om
ev#
10
4e
v#1
04
HX
14
30
1.0
1M
OC
84
3P
WS
22
35
00
01
60
.53
80
-14
7.8
00
17
40
10
0N
ap
pe
v#1
05
ev#
10
5H
X1
43
01
.02
Ca
lVE
T5
39
43
PW
S2
23
50
63
46
0.5
34
8-1
47
.80
27
74
01
00
nd
ev#1
06;
egg
ev#1
06;
egg
ratio
HX
14
30
1.0
3C
alV
ET
53
10
43
PW
S2
23
50
64
66
0.5
34
3-1
47
.80
12
74
01
00
nd
ev#1
07;
egg
ev#1
07;
egg
ratio
HX
14
30
1.0
4C
alV
ET
53
114
3P
WS
22
35
06
58
60
.53
25
-14
7.8
00
37
40
10
0n
dev
#108
; eg
gev
#108
; eg
g ra
tioH
X1
43
01
.05
CT
D1
61
44
PW
S2
23
50
72
66
0.5
33
0-1
47
.80
47
74
05
0S
trom
ev#1
09;
wat
erev
#109
; w
ater
for
fsw
HX
14
30
1.0
6Li
veN
et2
34
4P
WS
22
35
08
09
60
.53
47
-14
7.8
01
77
40
10
0N
ap
pev
#110
; liv
eev
#110
; liv
e an
imal
sH
X1
43
01
.07
Live
Net
24
44
PW
S2
23
50
82
66
0.5
32
5-1
47
.80
24
73
51
00
Na
pp
ev#1
11;
live
ev#1
11;
live
anim
als
HX
14
30
1.0
8Li
veN
et2
54
4P
WS
22
35
08
31
60
.53
18
-14
7.8
02
67
35
50
Dag
gev
#112
; liv
eev
#112
; liv
e an
imal
sH
X1
43
01
.09
Live
Net
26
44
PW
S2
23
50
84
06
0.5
30
6-1
47
.80
29
73
51
00
Da
gg
ev#
113
ev#
113
HX
14
30
1.1
0C
TD
16
24
4P
WS
22
35
08
57
60
.53
48
-14
7.8
05
57
35
50
Na
pp
ev#1
14;
graz
ing
ev#1
14;
graz
ing
exp.
# 7
HX
14
30
1.1
1C
TD
16
34
4P
WS
22
35
12
01
60
.53
49
-14
7.8
03
57
37
72
9S
trom
ev#1
15;
Mon
tagu
eev
#115
; M
onta
gue
Str
ait
surv
eyH
X1
43
01
.12
CT
D1
64
45
MS
12
35
16
32
59
.95
31
-14
7.9
28
51
68
16
1S
tro
me
v#11
6e
v#11
6H
X1
43
01
.13
CT
D1
65
46
MS
22
35
16
53
59
.94
34
-14
7.8
94
51
95
16
1S
tro
me
v#11
7e
v#11
7H
X1
43
01
.14
CT
D1
66
47
MS
32
35
17
15
59
.93
10
-14
7.8
56
81
65
16
2n
de
v#11
8e
v#11
8H
X1
43
01
.15
CT
D1
67
48
MS
42
35
17
43
59
.92
04
-14
7.8
28
811
01
05
Str
om
ev#
119
ev#
119
HX
14
30
1.1
6C
TD
16
84
9G
AK
42
35
22
44
59
.40
77
-14
9.0
47
12
00
19
7S
trom
ev#1
20;
AC
Cev
#120
; A
CC
sur
vey
HX
14
30
1.1
7C
TD
16
95
0G
AK
3I2
35
23
27
59
.48
20
-14
9.1
17
22
05
20
2S
tro
me
v#1
21
ev#
12
1H
X1
44
01
.01
CT
D1
70
51
GA
K3
24
50
011
59
.55
34
-14
9.1
89
32
14
211
Str
om
ev#
12
2e
v#1
22
HX
14
40
1.0
2C
TD
17
15
2G
AK
2I2
45
00
57
59
.62
73
-14
9.2
59
12
15
21
0S
tro
me
v#1
23
ev#
12
3H
X1
44
01
.03
CT
D1
72
53
GA
K2
24
50
14
15
9.6
92
5-1
49
.32
91
23
02
26
Str
om
ev#
12
4e
v#1
24
HX
14
40
1.0
4C
TD
17
35
4A
CC
12
45
02
09
59
.73
03
-14
9.3
63
42
40
23
8S
tro
me
v#1
25
ev#
12
5H
X1
44
01
.05
CT
D1
74
55
GA
K1I
24
50
24
05
9.7
67
5-1
49
.39
74
26
22
63
Str
om
ev#
12
6e
v#1
26
HX
14
40
1.0
6C
TD
17
55
6G
AK
12
45
03
26
59
.84
55
-14
9.4
66
92
74
26
8S
tro
me
v#1
27
ev#
12
7H
X1
44
01
.07
CT
D1
76
57
AC
C2
24
50
45
95
9.6
58
7-1
49
.29
31
22
12
14
Str
om
ev#
12
8e
v#1
28
HX
14
40
1.0
8C
alV
ET
53
12
58
GA
K4
24
50
70
05
9.4
07
3-1
49
.04
84
19
91
00
Na
pp
ev#1
29;
egg
ev#1
29;
egg
ratio
HX
14
40
1.0
9C
alV
ET
53
13
58
GA
K4
24
50
711
59
.40
72
-14
9.0
48
21
99
10
0N
ap
pev
#130
; eg
gev
#130
; eg
g ra
tioH
X1
44
01
.10
Ca
lVE
T5
31
45
8G
AK
42
45
07
22
59
.40
72
-14
9.0
48
31
99
10
0N
ap
pev
#131
; eg
gev
#131
; eg
g ra
tioH
X1
44
01
.11
Live
Net
27
58
GA
K4
24
50
73
95
9.4
06
3-1
49
.04
83
19
91
00
Na
pp
ev#1
32;
egg
ev#1
32;
egg
prod
uctio
nH
X1
44
01
.12
Live
Net
28
58
GA
K4
24
50
75
25
9.4
05
7-1
49
.04
77
19
91
00
Na
pp
ev#1
33;
egg
ev#1
33;
egg
prod
uctio
nH
X1
44
01
.13
Live
Net
29
58
GA
K4
24
50
80
35
9.4
05
5-1
49
.04
72
19
97
5D
ag
ge
v#1
34
; N
eoca
lanu
sev
#134
; N
eoca
lanu
sH
X1
44
01
.14
CT
D1
77
58
GA
K4
24
50
82
05
9.4
05
2-1
49
.04
69
18
95
0S
trom
ev#1
35;
wat
erev
#135
; w
ater
for
fsw
HX
14
40
1.1
5C
TD
17
85
8G
AK
42
45
09
37
59
.40
79
-14
9.0
48
01
95
50
Str
omev
#136
; gr
azin
gev
#136
; gr
azin
g ex
p. #
8H
X1
44
01
.16
CT
D1
79
58
GA
K4
24
51
20
05
9.4
08
7-1
49
.04
75
20
02
00
Str
om
ev#
13
7e
v#1
37
HX
14
40
1.1
7C
TD
18
05
9G
AK
4I2
45
12
53
59
.33
53
-14
8.9
77
31
97
19
0S
trom
ev#1
38;
Sew
ard
ev#1
38;
Sew
ard
Line
sur
vey
HX
14
40
1.1
8C
TD
18
16
0G
AK
52
45
13
38
59
.26
18
-14
8.9
07
71
70
16
5S
tro
me
v#1
39
ev#
13
9H
X1
44
01
.19
CT
D1
82
61
GA
K5I
24
51
42
35
9.1
90
5-1
48
.83
77
17
01
60
Str
om
ev#
14
0e
v#1
40
HX
14
40
1.2
0C
TD
18
36
2G
AK
62
45
15
115
9.1
14
0-1
48
.76
60
15
21
46
Str
om
ev#
14
1e
v#1
41
HX
14
40
1.2
1C
TD
18
46
35W
24
51
72
25
9.1
91
0-1
49
.19
94
16
55
1n
dev
#142
; S
earc
hing
ev#1
42;
Sea
rchi
ng f
or t
he b
loom
GLOBEC Cruise Report, R/V Alpha Helix (HX 244), 17 May - 31 May, 2001 29
HX
14
40
1.2
2C
TD
18
56
44I
W2
45
17
56
59
.26
40
-14
9.2
75
01
42
50
nd
ev#
14
3e
v#1
43
HX
14
40
1.2
3C
TD
18
66
54W
24
51
83
45
9.3
34
5-1
49
.34
52
16
55
0N
ap
pe
v#1
44
ev#
14
4H
X1
44
01
.24
Live
Net
30
66
4IW
24
51
91
35
9.2
63
7-1
49
.27
30
20
01
00
Str
omev
#145
; eg
gev
#145
; eg
g pr
oduc
tion
HX
14
40
1.2
5C
alV
ET
66
7G
AK
42
45
23
31
59
.40
85
-14
9.0
49
52
00
10
0n
de
v#1
46
ev#
14
6H
X1
44
01
.26
CT
D1
87
67
GA
K4
24
52
34
05
9.4
09
2-1
49
.05
07
20
02
00
nd
ev#
14
7e
v#1
47
HX
14
50
1.0
1M
OC
96
7G
AK
42
55
00
03
59
.411
7-1
49
.04
21
20
0n
dN
ap
pev
#148
; fa
iled
ev#1
48;
faile
dH
X1
45
01
.02
MO
C1
06
7G
AK
42
55
00
43
59
.41
23
-14
9.0
01
31
95
10
0N
ap
pe
v#1
49
ev#
14
9H
X1
45
01
.03
CT
D1
88
68
HP
72
55
05
35
59
.18
41
-14
9.5
02
31
47
10
0S
tro
me
v#1
50
ev#
15
0H
X1
45
01
.04
Ca
lVE
T5
31
56
94I
W2
55
06
39
59
.26
27
-14
9.2
73
51
39
10
0N
ap
pev
#151
; eg
gev
#151
; eg
g ra
tioH
X1
45
01
.05
Ca
lVE
T5
31
66
94I
W2
55
06
52
59
.26
27
-14
9.2
75
31
39
10
0N
ap
pev
#152
; eg
gev
#152
; eg
g ra
tioH
X1
45
01
.06
Ca
lVE
T5
31
76
94I
W2
55
07
05
59
.26
27
-14
9.2
77
81
39
10
0N
ap
pev
#153
; eg
gev
#153
; eg
g ra
tioH
X1
45
01
.07
Live
Net
31
69
4IW
25
50
72
95
9.2
63
7-1
49
.27
18
13
91
00
Na
pp
ev#
15
4e
v#1
54
HX
14
50
1.0
8Li
veN
et3
26
94I
W2
55
07
39
59
.26
37
-14
9.2
74
21
39
10
0N
ap
pe
v#1
55
ev#
15
5H
X1
45
01
.09
Live
Net
33
69
4IW
25
50
75
15
9.2
63
7-1
49
.27
68
13
95
0N
ap
pe
v#1
56
ev#
15
6H
X1
45
01
.10
Live
Net
34
69
4IW
25
50
81
55
9.2
65
3-1
49
.27
72
13
91
00
Na
pp
ev#
15
7e
v#1
57
HX
14
50
1.1
1C
TD
18
96
94I
W2
55
08
42
59
.26
40
-14
9.2
73
51
39
50
Str
omev
#158
; w
ater
ev#1
58;
wat
er f
or f
swH
X1
45
01
.12
CT
D1
90
69
4IW
25
50
94
75
9.2
64
5-1
49
.27
39
13
95
0S
trom
ev#1
59;
graz
ing
ev#1
59;
graz
ing
exp.
# 9
HX
14
50
1.1
3C
TD
19
16
94I
W2
55
12
02
59
.26
59
-14
9.2
81
71
39
13
9S
trom
ev#1
60;
wro
ngev
#160
; w
rong
dep
ths
sam
pled
HX
14
50
1.1
4C
TD
19
26
94I
W2
55
12
25
59
.26
59
-14
9.2
81
71
39
80
Str
om
ev#
16
1e
v#1
61
HX
14
50
1.1
5C
TD
19
37
04G
A2
55
13
59
59
.26
92
-14
9.4
62
41
46
14
1S
trom
ev#1
62;
4iW
ev#1
62;
4iW
grid
sur
vey
HX
14
50
1.1
6C
TD
19
47
14
GB
25
51
44
75
9.3
40
1-1
49
.34
57
14
61
42
Str
om
ev#
16
3e
v#1
63
HX
14
50
1.1
7C
TD
19
57
24
GC
25
51
53
85
9.4
10
9-1
49
.23
28
17
21
69
Str
om
ev#
16
4e
v#1
64
HX
14
50
1.1
8Li
veN
et3
57
24G
C2
55
15
57
59
.41
03
-14
9.2
41
61
72
10
0N
ap
pev
#165
; eg
gev
#165
; eg
g pr
oduc
tion
HX
14
50
1.1
9Li
veN
et3
67
24G
C2
55
16
06
59
.40
95
-14
9.2
44
91
72
60
Na
pp
ev#1
66;
egg
ev#1
66;
egg
prod
uctio
nH
X1
45
01
.20
CT
D1
96
73
4GG
25
51
64
55
9.3
37
0-1
49
.16
17
17
21
93
Str
om
ev#
16
7e
v#1
67
HX
14
50
1.2
1C
TD
19
77
44G
K2
55
17
32
59
.26
29
-14
9.0
89
11
65
16
1S
tro
me
v#1
68
ev#
16
8H
X1
45
01
.22
CT
D1
98
75
4GJ
25
51
82
25
9.1
91
9-1
49
.20
08
16
71
63
Str
om
ev#
16
9e
v#1
69
HX
14
50
1.2
3C
TD
19
97
64G
I2
55
19
18
59
.11
94
-14
9.3
16
31
32
13
3S
tro
me
v#1
70
ev#
17
0H
X1
45
01
.24
CT
D1
10
07
74G
F2
55
20
06
59
.19
41
-14
9.3
80
81
37
13
4S
tro
me
v#1
71
ev#
17
1H
X1
45
01
.25
Cal
VE
T7
78
4IW
25
52
33
15
9.2
63
1-1
49
.27
35
14
71
00
Str
om
ev#
17
2e
v#1
72
HX
14
50
1.2
6C
TD
11
01
78
4IW
25
52
33
85
9.2
62
8-1
49
.27
52
14
71
37
Str
om
ev#
17
3e
v#1
73
HX
14
50
1.2
7M
OC
117
84I
W2
55
23
54
59
.26
18
-14
9.2
74
51
47
10
0N
ap
pe
v#1
74
ev#
17
4H
X1
46
01
.01
Ca
lVE
T5
31
87
9G
AK
42
65
07
34
59
.40
80
-14
9.0
48
01
47
10
0N
ap
pev
#175
; eg
gev
#175
; eg
g ra
tioH
X1
46
01
.02
Ca
lVE
T5
31
97
9G
AK
42
65
07
45
59
.40
83
-14
9.0
50
71
47
10
0N
ap
pev
#176
; eg
gev
#176
; eg
g ra
tioH
X1
46
01
.03
Ca
lVE
T5
32
07
9G
AK
42
65
07
56
59
.40
93
-14
9.0
52
81
47
10
0N
ap
pev
#177
; eg
gev
#177
; eg
g ra
tioH
X1
46
01
.04
Live
Net
37
79
GA
K4
26
50
81
05
9.4
07
2-1
49
.04
79
20
01
00
Na
pp
ev#
17
8e
v#1
78
HX
14
60
1.0
5Li
veN
et3
87
9G
AK
42
65
08
26
59
.40
94
-14
9.0
51
62
00
10
0N
ap
pe
v#1
79
ev#
17
9H
X1
46
01
.06
Live
Net
39
79
GA
K4
26
50
83
75
9.4
09
5-1
49
.05
17
20
05
0N
ap
pe
v#1
80
ev#
18
0H
X1
46
01
.07
CT
D1
10
27
9G
AK
42
65
08
48
59
.40
89
-14
9.0
47
72
00
50
Str
omev
#181
; w
ater
ev#1
81;
wat
er f
or f
swH
X1
46
01
.08
CT
D2
10
37
9G
AK
42
65
09
46
59
.40
83
-14
9.0
46
71
98
50
Str
omev
#182
; gr
azin
gev
#182
; gr
azin
g ex
perim
ent
# 10
HX
14
60
1.0
9C
TD
11
04
79
GA
K4
26
51
20
15
9.4
09
1-1
49
.05
112
00
20
0S
tro
me
v#1
83
ev#
18
3H
X1
46
01
.10
CT
D1
10
57
9G
AK
42
65
12
36
59
.40
90
-14
9.0
48
82
00
19
6S
tro
me
v#1
84
ev#
18
4H
X1
46
01
.11
CT
D1
10
68
04G
D2
65
14
26
59
.48
19
-14
9.1
17
22
04
19
9S
trom
ev#1
85;
GA
K4
ev#1
85;
GA
K4
grid
sur
vey
HX
14
60
1.1
2C
TD
11
07
81
4GE
26
51
51
95
9.5
52
6-1
49
.00
31
18
31
76
Str
om
ev#
18
6e
v#1
86
HX
14
60
1.1
3C
TD
11
08
82
4GH
26
51
60
05
9.4
78
7-1
48
.93
24
18
41
81
Str
om
ev#
18
7e
v#1
87
HX
14
60
1.1
4C
TD
11
09
83
4G
M2
65
16
47
59
.40
49
-14
8.8
62
31
69
16
5S
tro
me
v#1
88
ev#
18
8H
X1
46
01
.15
CT
D1
110
84
4GL
26
51
73
85
9.3
35
5-1
48
.98
08
19
91
94
Str
om
ev#
18
9e
v#1
89
HX
14
60
1.1
6C
alV
ET
88
5G
AK
42
65
23
29
59
.41
03
-14
9.0
47
52
00
10
0N
ap
pe
v#1
90
ev#
19
0
Eve
nt#
Inst
rC
ast
Sta
Sta
Day
Mos
Tim
eLa
tLo
ngW
ater
Cas
tS
IR
egC
omm
ents
std
Dep
thD
epth
GLOBEC Cruise Report, R/V Alpha Helix (HX 244), 17 May - 31 May, 2001 30
HX
14
60
1.1
7C
TD
111
18
5G
AK
42
65
23
39
59
.411
1-1
49
.04
81
20
01
96
Str
om
ev#
19
1e
v#1
91
HX
14
60
1.1
8M
OC
12
85
GA
K4
26
52
35
55
9.4
110
-14
9.0
52
72
00
10
0N
ap
pe
v#1
92
ev#
19
2H
X1
47
01
.01
Live
Net
40
86
4IW
27
50
63
65
9.2
63
5-1
49
.27
78
14
51
00
Dag
gev
#193
; bl
oom
ev#1
93;
bloo
m g
one!
HX
14
70
1.0
2C
TD
111
28
74G
J2
75
08
47
59
.19
00
-14
9.2
01
21
62
50
Str
omev
#200
; w
ater
ev#2
00;
wat
er f
or f
swH
X1
47
01
.03
CT
D2
113
87
4GJ
27
51
01
35
9.1
90
5-1
49
.20
25
16
55
0S
trom
ev#2
01;
bloo
mev
#201
; bl
oom
gon
e!H
X1
47
01
.04
CT
D2
114
88
EX
P11
27
51
04
75
9.1
41
0-1
49
.21
35
14
45
0S
trom
ev#2
02;
graz
ing
ev#2
02;
graz
ing
expe
rimen
t #
11H
X1
47
01
.05
CT
D1
115
88
EX
P11
27
51
20
55
9.1
42
0-1
49
.21
53
14
41
44
Str
om
ev#
20
3e
v#2
03
HX
14
70
1.0
6C
TD
111
68
9G
AK
62
75
15
06
59
.07
93
-14
8.7
34
11
50
14
7S
trom
ev#2
04;
Sew
ard
ev#2
04;
Sew
ard
Line
sur
vey
HX
14
70
1.0
7C
TD
111
79
0G
AK
6I2
75
15
23
59
.04
61
-14
8.7
00
21
92
18
4S
tro
me
v#2
05
ev#
20
5H
X1
47
01
.08
CT
D1
118
91
GA
K7
27
51
61
25
8.9
71
2-1
48
.63
20
24
52
35
Str
om
ev#
20
6e
v#2
06
HX
14
70
1.0
9C
TD
111
99
2G
AK
7I2
75
17
08
58
.88
21
-14
8.5
60
53
03
29
0S
tro
me
v#2
07
ev#
20
7H
X1
47
01
.10
CT
D1
12
09
3E
XP
112
75
23
34
59
.14
23
-14
9.2
16
01
45
14
2S
tro
me
v#2
08
ev#
20
8H
X1
47
01
.11
Cal
VE
T9
93
EX
P11
27
52
34
05
9.1
42
3-1
49
.21
48
14
51
00
Str
om
ev#
20
9e
v#2
09
HX
14
70
1.1
2M
OC
13
93
EX
P11
27
52
35
05
9.1
41
7-1
49
.21
28
14
51
00
Na
pp
ev#
21
0e
v#2
10
HX
14
80
1.0
1C
TD
11
21
94
GA
K3
28
50
25
85
9.5
53
3-1
49
.18
91
22
52
09
Str
omev
#211
; A
CC
ev#2
11;
AC
C s
urve
yH
X1
48
01
.02
CT
D1
12
29
5G
AK
2I2
85
03
43
59
.62
74
-14
9.2
56
92
25
21
2S
tro
me
v#2
12
ev#
21
2H
X1
48
01
.03
CT
D1
12
39
6A
CC
22
85
04
13
59
.65
95
-14
9.2
90
92
19
21
8S
tro
me
v#2
13
ev#
21
3H
X1
48
01
.04
CT
D1
12
49
7G
AK
22
85
04
44
59
.69
12
-14
9.3
27
82
28
22
7S
tro
me
v#2
14
ev#
21
4H
X1
48
01
.05
CT
D1
12
59
8A
CC
12
85
05
16
59
.72
83
-14
9.3
60
92
42
29
Str
om
ev#
21
5e
v#2
15
HX
14
80
1.0
6C
TD
11
26
98
AC
C1
28
50
63
75
9.7
29
0-1
49
.36
30
24
22
40
Str
om
ev#
21
6e
v#2
16
HX
14
80
1.0
7C
TD
11
27
99
GA
K1I
28
50
71
95
9.7
66
0-1
49
.40
13
26
32
58
Str
om
ev#
21
7e
v#2
17
HX
14
80
1.0
8C
alV
ET
53
21
10
0A
CC
12
85
07
47
59
.72
83
-14
9.3
61
82
42
10
0N
ap
pev
#218
; eg
gev
#218
; eg
g ra
tioH
X1
48
01
.09
Ca
lVE
T5
32
21
00
AC
C1
28
50
80
05
9.7
25
8-1
49
.36
32
24
21
00
Na
pp
ev#2
19;
egg
ev#2
19;
egg
ratio
HX
14
80
1.1
0C
alV
ET
53
23
10
0A
CC
12
85
08
12
59
.72
22
-14
9.3
63
82
42
10
0N
ap
pev
#220
; eg
gev
#220
; eg
g ra
tioH
X1
48
01
.11
Live
Net
41
10
0A
CC
12
85
08
26
59
.71
88
-14
9.3
64
72
42
50
Da
gg
ev#
22
1;
Neo
cala
nus
ev#2
21;
Neo
cala
nus
HX
14
80
1.1
2Li
veN
et4
21
00
AC
C1
28
50
83
95
9.7
28
2-1
49
.36
25
24
21
00
Na
pp
ev#2
22;
egg
ev#2
22;
egg
prod
uctio
nH
X1
48
01
.13
Live
Net
43
10
0A
CC
12
85
08
50
59
.72
45
-14
9.3
64
22
42
10
0N
ap
pev
#223
; eg
gev
#223
; eg
g pr
oduc
tion
HX
14
80
1.1
4C
TD
11
28
10
0A
CC
12
85
10
00
59
.72
12
-14
9.3
61
82
42
75
Str
omev
#224
; w
ater
ev#2
24;
wat
er f
or f
swH
X1
48
01
.15
CT
D1
12
91
00
AC
C1
28
51
01
65
9.7
28
6-1
49
.36
18
24
27
5S
trom
ev#2
25;
graz
ing
ev#2
25;
graz
ing
exp.
# 1
2H
X1
48
01
.16
CT
D1
13
01
00
AC
C1
28
51
40
75
9.7
24
7-1
49
.36
30
24
22
38
Str
om
ev#
22
6e
v#2
26
HX
14
80
1.1
7C
TD
11
31
10
1G
AK
1I2
85
14
59
59
.76
60
-14
9.3
96
92
55
25
6S
trom
ev#2
27;
AC
Cev
#227
; A
CC
sur
vey
HX
14
80
1.1
8C
TD
11
32
10
2A
CC
12
85
15
33
59
.72
85
-14
9.3
61
72
42
23
6S
tro
me
v#2
28
ev#
22
8H
X1
48
01
.19
CT
D1
13
31
03
GA
K2
28
51
60
55
9.6
91
9-1
49
.32
62
22
72
22
Str
om
ev#
22
9e
v#2
29
HX
14
80
1.2
0C
TD
11
34
10
4A
CC
22
85
16
52
59
.65
84
-14
9.2
89
42
20
21
6S
tro
me
v#2
30
ev#
23
0H
X1
48
01
.21
CT
D1
13
51
05
GA
K2I
28
51
70
85
9.5
53
2-1
49
.18
77
21
52
10
Str
om
ev#
23
1e
v#2
31
HX
14
80
1.2
2C
TD
11
36
10
6G
AK
32
85
17
49
59
.55
32
-14
9.1
87
02
15
21
2S
tro
me
v#2
32
ev#
23
2H
X1
48
01
.23
Cal
VE
T1
01
07
AC
C1
28
52
33
45
9.7
28
0-1
49
.36
55
24
21
00
Str
om
ev#
23
3e
v#2
33
HX
14
80
1.2
4C
TD
11
37
10
7A
CC
12
85
23
41
59
.72
59
-14
9.3
67
62
42
24
2S
tro
me
v#2
34
ev#
23
4H
X1
49
01
.01
MO
C1
41
07
AC
C1
29
50
00
05
9.7
17
7-1
49
.37
30
24
21
00
Na
pp
ev#
23
5e
v#2
35
HX
14
90
1.0
2Li
veN
et4
41
07
AC
C1
29
50
70
05
9.7
27
0-1
49
.36
32
24
21
00
Na
pp
ev#
23
6e
v#2
36
HX
14
90
1.0
3Li
veN
et4
51
07
AC
C1
29
50
71
65
9.7
26
0-1
49
.36
62
24
21
00
Na
pp
ev#
23
7e
v#2
37
HX
14
90
1.0
4Li
veN
et4
61
07
AC
C1
29
50
73
05
9.7
25
2-1
49
.36
98
24
27
6D
ag
ge
v#2
38
;N
eoca
lanu
sev
#238
; N
eoca
lanu
sH
X1
49
01
.05
CT
D1
13
81
07
AC
C1
29
50
80
05
9.7
28
2-1
49
.36
20
24
27
5S
trom
ev#2
39;
wat
erev
#239
; w
ater
for
fsw
HX
14
90
1.0
6C
TD
21
39
10
7A
CC
12
95
08
56
59
.72
77
-14
9.3
61
52
43
75
Str
omev
#240
; gr
azin
gev
#240
; gr
azin
g ex
p. #
13
HX
14
90
1.0
7C
TD
11
40
10
7A
CC
12
95
12
08
59
.72
57
-14
9.3
63
12
43
24
0S
tro
me
v#2
41
ev#
24
1H
X1
49
01
.08
Live
Net
47
10
7A
CC
12
95
13
00
59
.72
87
-14
9.3
61
22
43
10
0N
ap
pev
#242
; eg
gev
#242
; eg
g pr
oduc
tion
Eve
nt#
Inst
rC
ast
Sta
Sta
Day
Mos
Tim
eLa
tLo
ngW
ater
Cas
tS
IR
egC
omm
ents
std
Dep
thD
epth
GLOBEC Cruise Report, R/V Alpha Helix (HX 244), 17 May - 31 May, 2001 31
HX
14
90
1.0
9Li
veN
et4
81
07
AC
C1
29
51
31
55
9.7
25
2-1
49
.36
58
24
31
00
Na
pp
ev#2
43;
egg
ev#2
43;
egg
prod
uctio
nH
X1
49
01
.10
CT
D1
14
11
07
AC
C1
29
51
33
35
9.7
28
7-1
49
.36
20
24
27
7S
trom
ev#2
44;
for
ev#2
44;
for
sz #
4H
X1
49
01
.11
CT
D1
14
21
08
ISG
A2
95
14
29
59
.68
35
-14
9.4
88
22
22
22
1S
trom
ev#2
45;
Inne
rev
#245
; In
ner
shel
f gr
id s
urve
yH
X1
49
01
.12
CT
D1
14
31
09
ISG
D2
95
14
57
59
.64
92
-14
9.4
52
12
76
26
1S
tro
me
v#2
46
ev#
24
6H
X1
49
01
.13
CT
D1
14
411
0IS
GF
29
51
53
15
9.6
07
7-1
49
.41
45
21
72
13
Str
om
ev#
24
7e
v#2
47
HX
14
90
1.1
4C
TD
11
45
111
GA
K3
29
51
63
25
9.5
53
8-1
49
.18
75
21
42
13
Str
om
ev#
24
8e
v#2
48
HX
14
90
1.1
5C
TD
11
46
112
GA
K2I
29
51
71
45
9.6
26
8-1
49
.25
82
21
52
12
Str
om
ev#
24
9e
v#2
49
HX
14
90
1.1
6C
TD
11
47
113
AC
C2
29
51
74
85
9.6
58
5-1
49
.29
56
22
02
20
Str
om
ev#
25
0e
v#2
50
HX
14
90
1.1
7C
TD
11
48
114
GA
K2
29
51
81
65
9.6
90
8-1
49
.32
92
22
72
24
Str
om
ev#
25
1e
v#2
51
HX
14
90
1.1
8C
TD
11
49
115
AC
C1
29
51
85
05
9.7
27
6-1
49
.36
47
24
32
36
Str
om
ev#
25
2e
v#2
52
HX
14
90
1.1
9C
TD
11
50
116
GA
K1I
29
51
92
05
9.7
65
8-1
49
.39
85
26
22
58
Str
om
ev#
25
3e
v#2
53
HX
14
90
1.2
0C
TD
11
51
117
ISG
C2
95
20
115
9.8
42
1-1
49
.30
52
10
19
6S
tro
me
v#2
54
ev#
25
4H
X1
49
01
.21
CT
D1
15
211
8IS
GF
29
52
03
75
9.8
07
0-1
49
.26
97
119
117
Str
om
ev#
25
5e
v#2
55
HX
14
90
1.2
2C
TD
11
53
119
ISG
H2
95
21
02
59
.76
98
-14
9.2
37
42
69
26
6S
tro
me
v#2
56
ev#
25
6H
X1
49
01
.23
Cal
VE
T11
12
0A
CC
12
95
23
31
59
.72
57
-14
9.3
64
62
47
10
0S
tro
me
v#2
57
ev#
25
7H
X1
49
01
.24
CT
D1
15
41
20
AC
C1
29
52
33
85
9.7
24
7-1
49
.36
60
24
72
39
Str
om
ev#
25
8e
v#2
58
HX
15
00
1.0
1M
OC
15
12
0A
CC
13
05
00
02
59
.71
71
-14
9.3
80
62
47
10
0S
tro
me
v#2
59
ev#
25
9H
X1
50
01
.02
Ca
lVE
T5
32
41
20
AC
C1
30
50
63
05
9.7
28
2-1
49
.36
58
24
71
00
Na
pp
ev#2
60;
egg
ev#2
60;
egg
ratio
HX
15
00
1.0
3C
alV
ET
53
25
12
0A
CC
13
05
06
42
59
.72
78
-14
9.3
73
52
47
10
0N
ap
pev
#261
; eg
gev
#261
; eg
g ra
tioH
X1
50
01
.04
Ca
lVE
T5
32
61
20
AC
C1
30
50
65
35
9.7
27
8-1
49
.37
82
24
71
00
Na
pp
ev#2
62;
egg
ev#2
62;
egg
ratio
HX
15
00
1.0
5Li
veN
et4
91
20
AC
C1
30
50
72
55
9.7
28
8-1
49
.37
20
24
7n
dD
ag
ge
v#2
63
ev#
26
3H
X1
50
01
.06
Live
Net
50
12
0A
CC
13
05
07
38
59
.72
82
-14
9.3
79
52
47
nd
Da
gg
ev#
26
4e
v#2
64
HX
15
00
1.0
7C
TD
11
55
12
0A
CC
13
05
08
14
59
.72
95
-14
9.3
63
52
43
75
Str
omev
#265
; w
ater
ev#2
65;
wat
er f
or f
swH
X1
50
01
.08
Live
Net
51
12
0A
CC
13
05
08
30
59
.72
78
-14
9.3
70
72
43
nd
Da
gg
ev#
26
6e
v#2
66
HX
15
00
1.0
9C
TD
21
56
12
0A
CC
13
05
09
19
59
.72
85
-14
9.3
61
72
43
75
Str
omev
#267
; gr
azin
gev
#267
; gr
azin
g ex
p. #
14H
X1
50
01
.10
CT
D1
15
71
20
AC
C1
30
51
30
55
9.7
28
1-1
49
.36
58
24
32
40
Str
om
ev#
26
8e
v#2
68
HX
15
00
1.1
1C
TD
11
58
12
1G
AK
33
05
14
26
59
.55
11-1
49
.18
48
21
32
06
Str
omev
#269
; A
CC
ev#2
69;
AC
C s
urve
yH
X1
50
01
.12
CT
D1
15
91
22
GA
K2I
30
51
51
25
9.6
27
2-1
49
.25
81
21
32
06
Str
om
ev#
27
0e
v#2
70
HX
15
00
1.1
3C
TD
11
60
12
3A
CC
23
05
15
42
59
.65
94
-14
9.2
94
72
18
21
4S
tro
me
v#2
71
ev#
27
1H
X1
50
01
.14
CT
D1
16
11
24
GA
K2
30
51
61
25
9.6
92
1-1
49
.32
71
22
72
18
Str
om
ev#
27
2e
v#2
72
HX
15
00
1.1
5C
TD
11
62
12
5A
CC
13
05
16
44
59
.72
92
-14
9.3
63
12
42
23
6S
tro
me
v#2
73
ev#
27
3H
X1
50
01
.16
CT
D1
16
31
26
GA
K1I
30
51
72
25
9.7
67
2-1
49
.39
70
26
22
56
Str
om
ev#
27
4e
v#2
74
HX
15
00
1.1
7C
TD
11
64
12
7G
AK
13
05
18
08
59
.84
53
-14
9.4
64
72
72
26
4S
tro
me
v#2
75
ev#
27
5H
X1
50
01
.18
Cal
VE
T1
21
28
AC
C1
30
52
32
95
9.7
28
8-1
49
.36
33
24
31
00
Str
om
ev#
27
6e
v#2
76
HX
15
00
1.1
9C
TD
11
65
12
8A
CC
13
05
23
40
59
.72
80
-14
9.3
62
62
43
24
0S
tro
me
v#2
77
ev#
27
7H
X1
50
01
.20
MO
C1
61
28
AC
C1
30
52
35
75
9.7
23
4-1
49
.36
78
24
31
00
Str
om
ev#
27
8e
v#2
78
HX
15
10
1.0
1C
TD
11
66
12
9E
XP
113
15
03
42
59
.14
15
-14
9.2
13
81
45
14
5S
tro
me
v#2
79
ev#
27
9H
X1
51
01
.02
Live
Net
52
12
9E
XP
113
15
05
30
59
.14
23
-14
9.2
14
01
45
10
0N
ap
pev
#280
; eg
gev
#280
; eg
g pr
oduc
tion
HX
15
10
1.0
3C
TD
11
67
13
0C
F1
53
15
07
59
59
.45
09
-14
8.8
64
01
80
18
0S
trom
ev#2
81;
Cap
eev
#281
; C
ape
Fai
rfie
ld s
urve
yH
X1
51
01
.04
Live
Net
53
13
0C
F15
31
50
81
55
9.5
17
7-1
48
.86
57
17
37
5D
ag
ge
v#2
82
;N
eoca
lanu
sev
#282
; N
eoca
lanu
sH
X1
51
01
.05
CT
D1
16
81
31
CF
14
31
50
83
65
9.4
83
6-1
48
.86
83
17
01
70
Str
om
ev#
28
3e
v#2
83
HX
15
10
1.0
6C
TD
11
69
13
2C
F1
33
15
09
01
59
.51
79
-14
8.8
65
61
73
17
3S
tro
me
v#2
84
ev#
28
4H
X1
51
01
.07
CT
D1
17
01
33
CF
12
31
50
92
75
9.5
50
7-1
48
.86
79
18
51
85
Str
om
ev#
28
5e
v#2
85
HX
15
10
1.0
8C
TD
11
71
13
4C
F11
31
50
95
55
9.5
84
0-1
48
.86
60
17
81
78
Str
om
ev#
28
6e
v#2
86
HX
15
10
1.0
9C
TD
11
72
13
5C
F1
03
15
10
20
59
.61
81
-14
8.8
69
21
78
17
8S
tro
me
v#2
87
ev#
28
7H
X1
51
01
.11
CT
D1
17
41
37
CF
83
15
111
25
9.6
84
5-1
48
.86
84
18
11
81
Str
om
ev#
28
9e
v#2
89
HX
15
10
1.1
2C
TD
11
75
13
8C
F7
31
511
36
59
.71
74
-14
8.8
67
21
83
18
3S
tro
me
v#2
90
ev#
29
0
Eve
nt#
Inst
rC
ast
Sta
Sta
Day
Mos
Tim
eLa
tLo
ngW
ater
Cas
tS
IR
egC
omm
ents
std
Dep
thD
epth
GLOBEC Cruise Report, R/V Alpha Helix (HX 244), 17 May - 31 May, 2001 32
HX
15
10
1.1
3C
TD
11
76
13
9C
F6
31
51
20
55
9.7
49
9-1
48
.86
78
19
11
91
Str
om
ev#
29
1e
v#2
91
HX
15
10
1.1
4C
TD
11
77
14
0C
F5
31
51
22
95
9.7
83
9-1
48
.86
73
19
31
93
Str
om
ev#
29
2e
v#2
92
HX
15
10
1.1
5C
TD
11
78
14
1C
F4
31
51
25
55
9.8
17
0-1
48
.86
67
18
41
84
Str
om
ev#
29
3e
v#2
93
HX
15
10
1.1
6C
TD
11
79
14
2C
F3
31
51
32
15
9.8
50
6-1
48
.86
72
16
21
62
Str
om
ev#
29
4e
v#2
94
HX
15
10
1.1
7C
TD
11
80
14
3C
F2
31
51
34
65
9.8
84
1-1
48
.86
75
113
113
Str
om
ev#
29
5e
v#2
95
HX
15
10
1.1
8C
TD
11
81
14
4C
F1
31
51
40
55
9.9
09
2-1
48
.86
90
83
83
Str
om
ev#
29
6e
v#2
96
HX
15
10
1.1
9C
TD
11
82
14
5G
AK
1I3
15
16
09
59
.76
57
-14
8.3
97
52
65
75
Str
omev
#297
; ce
llev
#297
; ce
ll se
ttlin
g ex
perim
ent
HX
15
10
1.2
0C
TD
11
83
14
6G
AK
13
15
16
50
59
.84
49
-14
9.4
67
22
72
27
2S
tro
me
v#2
98
ev#
29
8n
dR
etu
rnn
dn
dn
d3
15
18
53
nd
nd
nd
nd
nd
nd
Eve
nt#
Inst
rC
ast
Sta
Sta
Day
Mos
Tim
eLa
tLo
ngW
ater
Cas
tS
IR
egC
omm
ents
std
Dep
thD
epth