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Metadata Report for BODC Series Reference Number 913352


Metadata Summary

Data Description

Data Category Currents -subsurface Eulerian
Instrument Type
NameCategories
Teledyne RDI Workhorse Monitor 300 kHz direct-reading ADCP  current profilers
Instrument Mounting lowered unmanned submersible
Originating Country United Kingdom
Originator Mr David Hamersley
Originating Organization National Oceanography Centre, Southampton
Processing Status banked
Online delivery of data Download available - Ocean Data View (ODV) format
Project(s) Oceans 2025
Oceans 2025 Theme 1
Oceans 2025 Theme 1 WP1.3
 

Data Identifiers

Originator's Identifier PRO_DATA_J038_02_UPCAST
BODC Series Reference 913352
 

Time Co-ordinates(UT)

Start Time (yyyy-mm-dd hh:mm) 2009-02-16 12:58
End Time (yyyy-mm-dd hh:mm) -
Nominal Cycle Interval 20.0 metres
 

Spatial Co-ordinates

Latitude 62.50000 S ( 62° 30.0' S )
Longitude 64.46000 W ( 64° 27.6' W )
Positional Uncertainty Unspecified
Minimum Sensor or Sampling Depth 40.0 m
Maximum Sensor or Sampling Depth 3740.0 m
Minimum Sensor or Sampling Height 11.0 m
Maximum Sensor or Sampling Height 3711.0 m
Sea Floor Depth 3751.0 m
Sea Floor Depth Source CRREP
Sensor or Sampling Distribution Variable common depth - All sensors are grouped effectively at the same depth, but this depth varies significantly during the series
Sensor or Sampling Depth Datum Unspecified -
Sea Floor Depth Datum Approximate - Depth is only approximate
 

Parameters

BODC CODERankUnitsTitle
ACYCAA011DimensionlessSequence number
ADEPZZ011MetresDepth (spatial coordinate) relative to water surface in the water body
LCEWLW011Centimetres per secondEastward velocity of water current (Eulerian measurement) in the water body by lowered acoustic doppler current profiler (ADCP)
LCNSLW011Centimetres per secondNorthward velocity of water current (Eulerian measurement) in the water body by lowered acoustic doppler current profiler (ADCP)
LRZALW011Centimetres per secondUpward velocity of water current in the water body by lowered acoustic doppler current profiler (ADCP)
NLADCPBN1DimensionlessNumber (per bin) of measurements by lowered acoustic doppler current profiler (ADCP)
SDEWLW011Centimetres per secondEastward velocity standard deviation of water current (Eulerian measurement) in the water body by lowered acoustic doppler current profiler (ADCP)
SDNSLW011Centimetres per secondNorthward velocity standard deviation of water current (Eulerian measurement) in the water body by lowered acoustic doppler current profiler (ADCP)
SDZALW011Centimetres per secondUpward velocity standard deviation of water current in the water body by lowered acoustic doppler current profiler (ADCP)

Definition of Rank

  • Rank 1 is a one-dimensional parameter
  • Rank 2 is a two-dimensional parameter
  • Rank 0 is a one-dimensional parameter describing the second dimension of a two-dimensional parameter (e.g. bin depths for moored ADCP data)

Problem Reports

No Problem Report Found in the Database


Data Access Policy

Open Data

These data have no specific confidentiality restrictions for users. However, users must acknowledge data sources as it is not ethical to publish data without proper attribution. Any publication or other output resulting from usage of the data should include an acknowledgment.

If the Information Provider does not provide a specific attribution statement, or if you are using Information from several Information Providers and multiple attributions are not practical in your product or application, you may consider using the following:

"Contains public sector information licensed under the Open Government Licence v1.0."


Narrative Documents

Teledyne RDI's Workhorse Monitor ADCP

The Workhorse Monitor acoustic doppler current profler (Teledyne RD Instruments) is a long-range and long-term self contained ADCP. It has a patented four beam signal (300, 600 or 1200 kHz) and a standard depth rating of 200m or 600m. It operates effectively between temperatures of -5°C and 45°C and has a velocity accuracy of ±1% ±5mm/s.

Instrument Description

CTD Unit and Auxiliary Sensors

Two CTD packages were used during RRS James Cook cruise 31 (JC031). The first CTD package (stations 1-12) comprised a Sea-Bird 911plus CTD system, auxiliary sensors and Sea-Bird SBE 32, 24-way carousel fitted to a stainless steel frame with fin. During it's recovery at station 12 (08/02/2009), the package was pulled into the hydroboom block resulting in the total loss of the CTD package over the side. Consequently, the entire package was replaced (see below). A full description of the package is as follows:

Instrument/Sensor Serial Number Manufacturer's
Calibration Date
Comments
Sea-Bird SBE 9plus underwater unit (aluminium) 09P-24680-0636    
Sea-Bird SBE 11plus deck unit 11P-34173-0676    
Sea-Bird SBE 3P temperature sensor (aluminium) 03P-4301 4-Apr-08 primary (frame-mounted)
Sea-Bird SBE 4C conductivity sensor (titanium) 04C-3153(T) 22-Apr-08 primary (frame-mounted)
Sea-Bird SBE 3P temperature sensor (aluminium) 03P-4490 4-Apr-08 secondary (fin-mounted)
Sea-Bird SBE 4C conductivity sensor (titanium) 04C-3153(T) 22-Apr-08 secondary (fin-mounted)
Digiquartz temperature compensated pressure sensor 83008 10-Sep-08  
Sea-Bird SBE 32 24-way carousel 32-45661-0621    
20L OTE external spring water samplers     rosette positions 1-24
Sea-Bird SBE 43 dissolved oxygen sensor (titanium) 43-1196 3-Oct-08  
Chelsea MKIII Aquatracka fluorometer (titanium) 88108 9-Jan-08 configured for chl-a
Chelsea MKII Alphatracka transmissometer (titanium) 161045 8-Sep-05 660nm, 25cm path
Wetlabs BBRTD backscatter sensor (titanium) 115R 13-May-08 660nm
PML 2-pi PAR sensor (upwelling) 9 21-Jun-08 only fitted on casts <600m in daylight hours
PML 2-pi PAR sensor (downwelling) 10 14-Apr-08 only fitted on casts <600m in daylight hours
RDI Workhorse Monitor 300kHz ADCP (titanium) 10629   downward-looking master configuration
Benthos PSA-916T 200kHz altimeter (titanium) 1040 Mar-03  
NMF 10kHz pinger B5    
Sea-Bird SBE 5T submersible pump (titanium) 05T-4166   primary
Sea-Bird SBE 5T submersible pump (titanium) 05T-2793   secondary (fin-mounted)

The replacement CTD package (stations 13-84) also comprised a Sea-Bird 911plus CTD system, auxiliary sensors and Sea-Bird SBE 32, 24-way carousel fitted to a stainless steel frame with fin. The LADCP (s/n 4275) was damaged during the deployment of station 35 and was replaced prior to station 36. A full description of this package is as follows:

Instrument/Sensor Serial Number Manufacturer's
Calibration Date
Comments
Sea-Bird SBE 9plus underwater unit (titanium) 09P-24680-0637(T)    
Sea-Bird SBE 11plus deck unit (titanium) 11P-34173-0676    
Sea-Bird SBE 3P temperature sensor (titanium) 03P-4592(T) 28-May-08 primary (frame-mounted)
Sea-Bird SBE 4C conductivity sensor (titanium) 04C-3272(T) 13-Jun-08 primary (frame-mounted)
Sea-Bird SBE 3P temperature sensor (aluminium) 03P-4782 17-Jun-08 secondary (fin-mounted)
Sea-Bird SBE 4C conductivity sensor (aluminium) 04C-3258 6-Jun-08 secondary (fin-mounted)
Digiquartz temperature compensated pressure sensor (titanium) 79501 22-Sep-08  
Sea-Bird SBE 32, 24-way carousel 32-19817-0243    
20L OTE external spring water samplers     rosette positions 21-24
10L OTE external spring water samplers     rosette positions 1-20
Sea-Bird SBE 43 dissolved oxygen sensor (titanium) 43-0619 11-Nov-08  
Chelsea MKIII Aquatracka fluorometer (titanium) 88244 10-Jun-08 configured for chl-a
Chelsea MKII Alphatracka transmissometer (titanium) 07-6075-001 18-Oct-07 660nm, 25cm path
Wetlabs BBRTD backscatter sensor (titanium) 182 20-Jun-07 660nm
PML 2-pi PAR upwelling sensor 9 21-Jun-08 only used on casts <600m and in daylight
PML 2-pi PAR downwelling sensor 10 14-Apr-08 only used on casts <600m and in daylight
RDI Workhorse Monitor 300kHz LADCP (aluminium) 4275   downward-looking master configuration (stations 13-35)
RDI Workhorse Monitor 300kHz LADCP (titanium) 10607   downward-looking master configuration (stations 36-84)
Benthos PSA-916T 200kHz altimeter (titanium) 41302 26-Apr-07  
Sea-Bird SBE 5T submersible pump (titanium) 05T-3002   primary
Sea-Bird SBE 5T submersible pump (titanium) 05T-4513   secondary (fin-mounted)

BODC Processing

The data arrived at BODC in 81 Matlab (.MAT) format files. These represented all of the available measurements taken during the cruise that were processed using the shear method implemented in University of Hawaii software. The downcast and upcast data were reformatted into separate internal QXF format files using BODC transfer function 438. The following table shows how the upcast variables within the .MAT files were mapped to appropriate BODC parameter codes:

Originator's Variables Units Description BODC Parameter Code Units Comment
d_samp metres Depth below sea surface (ADCP bin) DBINAA01 metres  
pxy decimal degrees latitude and longitude position at start - - Not transferred
sm_dn_i - Flags indicating whether bin contains real or fill value (downcast) - - Not converted
sm_mn_i - Flags indicating whether bin contains real or fill value (mean) - - Not converted - mean data are not transferred into QXF
sm_up_i - Flags indicating whether bin contains real or fill value (upcast) - - Converted to BODC QC flags
sn_dn_i None Number (per bin) of measurements by lowered acoustic doppler current profiler (ADCP) (downcast) - - Not transferred
sn_mn_i None Number (per bin) of measurements by lowered acoustic doppler current profiler (ADCP) (mean) - - Not transferred - mean data are not transferred into QXF
sn_up_i None Number (per bin) of measurements by lowered acoustic doppler current profiler (ADCP) (upcast) NLADCPBN None  
su_dn_i m s-1 Eastward current velocity (Eulerian) in the water column (downcast) - - Not transferred
su_mn_i m s-1 Eastward current velocity (Eulerian) in the water column (mean) - - Not transferred - can be derived from upcast and downcast velocities
su_up_i m s-1 Eastward current velocity (Eulerian) in the water column (upcast) LCEWLW01 cm s-1 Velocity * 100
sv_dn_i m s-1 Northward current velocity (Eulerian) in the water column (downcast) - - Not transferred
sv_mn_i m s-1 Northward current velocity (Eulerian) in the water column (mean) - - Not transferred - can be derived from upcast and downcast velocities
sv_up_i m s-1 Northward current velocity (Eulerian) in the water column (upcast) LCNSLW01 cm s-1 Velocity * 100
sw_dn_i m s-1 Upward current velocity in the water column (downcast) - - Not transferred
sw_mn_i m s-1 Upward current velocity in the water column (mean) - - Not transferred - can be derived from upcast and downcast velocities
sw_up_i m s-1 Upward current velocity in the water column (upcast) LRZALW01 cm s-1 Velocity * 100
sv_var_dn_i m s-1 Variance of shear in the northward velocity component (downcast) - - Not transferred
sv_var_mn_i m s-1 Variance of shear in the northward velocity component (mean) - - Not transferred - can be derived from upcast and downcast velocities
sv_var_up_i m s-1 Variance of shear in the northward velocity component (upcast) SDNSLW01 cm s-1 (variance0.5) * 100
sw_var_dn_i m s-1 Variance of shear in the upward velocity component (downcast) - - Not transferred
sw_var_mn_i m s-1 Variance of shear in the upward velocity component (mean) - - Not transferred - can be derived from upcast and downcast velocities
sw_var_up_i m s-1 Variance of shear in the upward velocity component (upcast) SDZALW01 cm s-1 (variance0.5) * 100
su_var_dn_i m s-1 Variance of shear in the eastward velocity component (downcast) - - Not transferred
su_var_mn_i m s-1 Variance of shear in the eastward velocity component (mean) - - Not transferred - can be derived from upcast and downcast velocities
su_var_up_i m s-1 Variance of shear in the eastward velocity component (upcast) SDEWLW01 cm s-1 (variance0.5) * 100
txy_start_end decimal Day, latitude and longitude at start and end of profile - - Not transferred into QXF

The reformatted data were visualised using the in-house EDSERPLO software. Suspect data were marked by adding an appropriate quality control flag, missing data by both setting the data to an appropriate value and setting the quality control flag.

Originator's Data Processing

Sampling Strategy

The aim of JC031 was to occupy repeats of hydrographic sections in Drake Passage. The sections studied are as follows: Section SR1 (also known as A21), which is located in Drake Passage between the Southern tip of South America and the West Antarctic Peninsula; section SR1b is located further to the east. In addition to the previous section of SR1b, extra stations were sampled on the northern side of the Burdwood Bank, located south of the Falkland Islands. The data collected during JC031 comprised physical, chemical and biological measurements. There were five main scientific teams, physics, nutrients and oxygen, carbon, CFC's and transient tracers, and biology (phytoplankton). The data will contribute to the current knowledge of the physical, chemical and biological properties in this region, and will also allow comparisons to be drawn with previous cruise data so that the change in water properties and transport through Drake Passage from west to east can be observed.

In total 84 CTD (conductivity-temperature-depth) stations were occupied. A 24-bottle rosette was used to take water samples at these CTD stations. Also mounted on the frame was a LADCP (lowered acoustic doppler current profiler), fluorometer, transmissometer, and a dissolved oxygen sensor. Of these casts, only 81 yielded LADCP measurements. This was due to an incident with the winch during station 12 which caused the total loss of the CTD package (including LADCP). Data was not collected during station 13 as this was only a test station. Station 50 did not yield any LADCP data because the deploy command was not sent. Stations 35 and 36 were repeats of station 34.

Data Processing

Data collected from the instrument was downloaded after each cast by the technician on watch. Subsequently, data were processed using two methods; the shear method implemented in University of Hawaii software and the least squares method implemented in LDEO software version 7. Further information about processing methods can be found in the report (from p68) for cruise RRS Charles Darwin 139 (CD139). Additional information can also be found in the LADCP report from cruise JC031.


Project Information

Oceans 2025 Theme 1: Climate, Ocean Circulation and Sea Level

Through fieldwork, analysis and modelling, Theme 1 will provide detailed knowledge of how the Atlantic, Arctic and Southern Oceans are responding to, and driving, climate change. In combination with geodetic studies, it will also improve our ability to predict global sea level and UK land movements in the century ahead.

The official Oceans 2025 documentation for this Theme is available from the following link: Oceans 2025 Theme 1

Weblink: http://www.oceans2025.org/


Oceans 2025 Theme 1, Work Package 1.3: Physical-biogeochemical budgets and mixing in the Southern Ocean

This Work Package is run by the National Oceanography Centre, Southampton (NOCS) and aims to establish regional budgets of heat, freshwater and carbon, and to develop more accurate parameterisations for predictive ocean models by quantitatively investigating diapycnal and isopycnal transport processes using observations.

Vast, though poorly quantified, amounts of anthropogenic CO2 (~20 Pg) are believed to have been absorbed into the Antarctic mode and intermediate waters. Much of this uptake is achieved in the Antarctic Circumpolar Current (ACC), involving the upwelling of North Atlantic Deep Water, its northward transport by a delicate balance between Ekman drift and eddies, followed by subduction as mode waters. Models suggest that the rate of CO2 uptake is sensitive to changes in the wind and to changes to the eddy fluxes (Mignone et al., 2005).

To predict climate change, it is essential that the size of this carbon sink be known, and the processes that control it be understood. Even the exchanges of heat and freshwater between the Atlantic and Southern Oceans are poorly known. NOCS will combine observations and modelling to quantify and understand the processes controlling property fluxes and trends in the Atlantic sector of the Southern Ocean, where the Atlantic overturning circulation is partially closed as it meets the ACC. The observational effort will be fully integrated with the international Climate Variability and Predictability (CLIVAR)/Carbon repeat hydrography program, and with the Diapycnal and Isopycnal Mixing Experiment in the Southern Ocean (DIMES) initiative to study mixing rates and processes; this work has been accepted as a contribution to the International Polar Year. The budgets and mixing rates inferred from field measurements will be used to both evaluate and improve numerical models.

More detailed information on this Work Package is available at pages 10 - 11 of the official Oceans 2025 Theme 1 document: Oceans 2025 Theme 1

Weblink: http://www.oceans2025.org/

References

Mignone B., Gnanadesikan A., Sarmiento JL., and Slater RD., 2005. Central role of Southern Hemisphere winds and eddies in modulating the oceanic uptake of anthropogenic carbon, Geophys Res Lett, 32 doi:101029/2005Gl024464


Oceans 2025 - The NERC Marine Centres' Strategic Research Programme 2007-2012

Who funds the programme?

The Natural Environment Research Council (NERC) funds the Oceans 2025 programme, which was originally planned in the context of NERC's 2002-2007 strategy and later realigned to NERC's subsequent strategy (Next Generation Science for Planet Earth; NERC 2007).

Who is involved in the programme?

The Oceans 2025 programme was designed by and is to be implemented through seven leading UK marine centres. The marine centres work together in coordination and are also supported by cooperation and input from government bodies, universities and other partners. The seven marine centres are:

  • National Oceanography Centre, Southampton (NOCS)
  • Plymouth Marine Laboratory (PML)
  • Marine Biological Association (MBA)
  • Sir Alister Hardy Foundation for Marine Science (SAHFOS)
  • Proudman Oceanographic Laboratory (POL)
  • Scottish Association for Marine Science (SAMS)
  • Sea Mammal Research Unit (SMRU)

Oceans2025 provides funding to three national marine facilities, which provide services to the wider UK marine community, in addition to the Oceans 2025 community. These facilities are:

  • British Oceanographic Data Centre (BODC), hosted at POL
  • Permanent Service for Mean Sea Level (PSMSL), hosted at POL
  • Culture Collection of Algae and Protozoa (CCAP), hosted at SAMS

The NERC-run Strategic Ocean Funding Initiative (SOFI) provides additional support to the programme by funding additional research projects and studentships that closely complement the Oceans 2025 programme, primarily through universities.

What is the programme about?

Oceans 2025 sets out to address some key challenges that face the UK as a result of a changing marine environment. The research funded through the programme sets out to increase understanding of the size, nature and impacts of these changes, with the aim to:

  • improve knowledge of how the seas behave, not just now but in the future;
  • help assess what that might mean for the Earth system and for society;
  • assist in developing sustainable solutions for the management of marine resources for future generations;
  • enhance the research capabilities and facilities available for UK marine science.

In order to address these aims there are nine science themes supported by the Oceans 2025 programme:

  • Climate, circulation and sea level (Theme 1)
  • Marine biogeochemical cycles (Theme 2)
  • Shelf and coastal processes (Theme 3)
  • Biodiversity and ecosystem functioning (Theme 4)
  • Continental margins and deep ocean (Theme 5)
  • Sustainable marine resources (Theme 6)
  • Technology development (Theme 8)
  • Next generation ocean prediction (Theme 9)
  • Integration of sustained observations in the marine environment (Theme 10)

In the original programme proposal there was a theme on health and human impacts (Theme 7). The elements of this Theme have subsequently been included in Themes 3 and 9.

When is the programme active?

The programme started in April 2007 with funding for 5 years.

Brief summary of the programme fieldwork/data

Programme fieldwork and data collection are to be achieved through:

  • physical, biological and chemical parameters sampling throughout the North and South Atlantic during collaborative research cruises aboard NERC's research vessels RRS Discovery, RRS James Cook and RRS James Clark Ross;
  • the Continuous Plankton Recorder being deployed by SAHFOS in the North Atlantic and North Pacific on 'ships of opportunity';
  • physical parameters measured and relayed in near real-time by fixed moorings and ARGO floats;
  • coastal and shelf sea observatory data (Liverpool Bay Coastal Observatory (LBCO) and Western Channel Observatory (WCO)) using the RV Prince Madog and RV Quest.

The data is to be fed into models for validation and future projections. Greater detail can be found in the Theme documents.


Data Activity or Cruise Information

Cruise

Cruise Name JC031
Departure Date 2009-02-03
Arrival Date 2009-03-03
Principal Scientist(s)Elaine McDonagh (National Oceanography Centre, Southampton)
Ship RRS James Cook

Complete Cruise Metadata Report is available here


Fixed Station Information

Fixed Station Information

Station NameDrake Passage - WOCE SR1
CategoryOffshore route/traverse

World Ocean Circulation Experiment (WOCE) Southern Repeat Section 1 - South America to West Antarctic Peninsula

WOCE established a repeat hydrographic section across Drake Passage and designated it SR1 (also known as A21). The section is located between the Southern tip of South America and the West Antarctic Peninsula within a bounding box of 55° 19.40' S, 68° 15.80' W (North-Western corner) and 64° 8.52' S, 63° 4.80' W (South-Eastern corner).

In 1992 the section was moved eastwards to lie on a satellite ground track with the northern end on the south side of Burdwood Bank and the southern end off Elephant Island. This revised location was designated SR1b.

A table of cruises which occupied SR1 is presented below with links to the relevant cruise reports (where available).

Cruise Country Start Date End Date
R/V Meteor 11/5 Germany 23-01-1990 08-03-1990
Polarstern ANT 10-5 Germany 08-08-1992 26-09-1992
R/V Vidal Gormaz 20VDSR0193_1 Chile 02-11-1993 25-12-1993
R/V Vidal Gormaz 20VDSR0194_1 Chile 08-11-1994 08-12-1994
R/V Vidal Gormaz 20VDSR0195_1 Chile 04-12-1995 15-12-1995
R/V Vidal Gormaz 20VDSR0196_1 Chile 28-11-1996 13-12-1996
R/V Vidal Gormaz 20VDSR0198_1 Chile 26-11-1998 15-12-1998
RRS James Clark Ross JR40 United Kingdom 15-03-1999 22-04-1999
RRS James Cook JC031 United Kingdom 03-02-2009 03-03-2009
RRS James Cook JC054 United Kingdom 28-11-2010 08-01-2011
RRS James Cook JC069 United Kingdom 31-01-2012 22-03-2012

Related Fixed Station activities are detailed in Appendix 1


BODC Quality Control Flags

The following single character qualifying flags may be associated with one or more individual parameters with a data cycle:

Flag Description
Blank Unqualified
< Below detection limit
> In excess of quoted value
A Taxonomic flag for affinis (aff.)
B Beginning of CTD Down/Up Cast
C Taxonomic flag for confer (cf.)
D Thermometric depth
E End of CTD Down/Up Cast
G Non-taxonomic biological characteristic uncertainty
H Extrapolated value
I Taxonomic flag for single species (sp.)
K Improbable value - unknown quality control source
L Improbable value - originator's quality control
M Improbable value - BODC quality control
N Null value
O Improbable value - user quality control
P Trace/calm
Q Indeterminate
R Replacement value
S Estimated value
T Interpolated value
U Uncalibrated
W Control value
X Excessive difference

SeaDataNet Quality Control Flags

The following single character qualifying flags may be associated with one or more individual parameters with a data cycle:

Flag Description
0 no quality control
1 good value
2 probably good value
3 probably bad value
4 bad value
5 changed value
6 value below detection
7 value in excess
8 interpolated value
9 missing value
A value phenomenon uncertain
B nominal value
Q value below limit of quantification

Appendix 1: Drake Passage - WOCE SR1

Related series for this Fixed Station are presented in the table below. Further information can be found by following the appropriate links.

If you are interested in these series, please be aware we offer a multiple file download service. Should your credentials be insufficient for automatic download, the service also offers a referral to our Enquiries Officer who may be able to negotiate access.

Series IdentifierData CategoryStart date/timeStart positionCruise
912084Currents -subsurface Eulerian2009-02-05 14:41:0057.13 S, 68.25 WRRS James Cook JC031
912975Currents -subsurface Eulerian2009-02-05 14:41:0057.13 S, 68.25 WRRS James Cook JC031
935777CTD or STD cast2009-02-05 14:42:4057.13 S, 68.2501 WRRS James Cook JC031
1022030Currents -subsurface Eulerian2009-02-06 01:02:2064.14044 S, 68.66633 WRRS James Cook JC031
1022017Currents -subsurface Eulerian2009-02-06 01:03:1264.14045 S, 68.66691 WRRS James Cook JC031
912096Currents -subsurface Eulerian2009-02-06 01:09:0056.33 S, 67.99 WRRS James Cook JC031
912987Currents -subsurface Eulerian2009-02-06 01:09:0056.33 S, 67.99 WRRS James Cook JC031
935789CTD or STD cast2009-02-06 01:09:1556.33 S, 67.99 WRRS James Cook JC031
1875752Water sample data2009-02-06 01:24:0056.33 S, 67.99004 WRRS James Cook JC031
2105800Water sample data2009-02-06 01:24:0056.33 S, 67.99004 WRRS James Cook JC031
2113615Water sample data2009-02-06 01:24:0056.33 S, 67.99004 WRRS James Cook JC031
935790CTD or STD cast2009-02-06 05:20:1056.7999 S, 68.19 WRRS James Cook JC031
912103Currents -subsurface Eulerian2009-02-06 05:21:0056.8 S, 68.19 WRRS James Cook JC031
912999Currents -subsurface Eulerian2009-02-06 05:21:0056.8 S, 68.19 WRRS James Cook JC031
1875764Water sample data2009-02-06 05:42:3056.79993 S, 68.18997 WRRS James Cook JC031
2105812Water sample data2009-02-06 05:42:3056.79993 S, 68.18997 WRRS James Cook JC031
2113627Water sample data2009-02-06 05:42:3056.79993 S, 68.18997 WRRS James Cook JC031
935808CTD or STD cast2009-02-06 07:16:4556.8501 S, 68.21 WRRS James Cook JC031
912115Currents -subsurface Eulerian2009-02-06 07:18:0056.85 S, 68.21 WRRS James Cook JC031
913002Currents -subsurface Eulerian2009-02-06 07:18:0056.85 S, 68.21 WRRS James Cook JC031
1875776Water sample data2009-02-06 07:43:0056.85004 S, 68.21002 WRRS James Cook JC031
2105824Water sample data2009-02-06 07:43:0056.85004 S, 68.21002 WRRS James Cook JC031
2113639Water sample data2009-02-06 07:43:0056.85004 S, 68.21002 WRRS James Cook JC031
935821CTD or STD cast2009-02-06 09:39:3556.88 S, 68.23 WRRS James Cook JC031
912127Currents -subsurface Eulerian2009-02-06 09:41:0056.88 S, 68.23 WRRS James Cook JC031
913014Currents -subsurface Eulerian2009-02-06 09:41:0056.88 S, 68.23 WRRS James Cook JC031
1875788Water sample data2009-02-06 10:33:3056.87999 S, 68.23 WRRS James Cook JC031
2105836Water sample data2009-02-06 10:33:3056.87999 S, 68.23 WRRS James Cook JC031
2113640Water sample data2009-02-06 10:33:3056.87999 S, 68.23 WRRS James Cook JC031
912139Currents -subsurface Eulerian2009-02-06 12:59:0056.89 S, 68.24 WRRS James Cook JC031
913026Currents -subsurface Eulerian2009-02-06 12:59:0056.89 S, 68.24 WRRS James Cook JC031
935833CTD or STD cast2009-02-06 13:00:0856.89 S, 68.2401 WRRS James Cook JC031
1875807Water sample data2009-02-06 14:13:3056.89002 S, 68.24007 WRRS James Cook JC031
2105848Water sample data2009-02-06 14:13:3056.89002 S, 68.24007 WRRS James Cook JC031
2113652Water sample data2009-02-06 14:13:3056.89002 S, 68.24007 WRRS James Cook JC031
912140Currents -subsurface Eulerian2009-02-06 23:38:0056.91167 S, 68.24183 WRRS James Cook JC031
913038Currents -subsurface Eulerian2009-02-06 23:38:0056.91167 S, 68.24183 WRRS James Cook JC031
935845CTD or STD cast2009-02-06 23:38:2356.9117 S, 68.2419 WRRS James Cook JC031
1875819Water sample data2009-02-07 01:00:3056.91145 S, 68.2416 WRRS James Cook JC031
2105861Water sample data2009-02-07 01:00:3056.91145 S, 68.2416 WRRS James Cook JC031
2113664Water sample data2009-02-07 01:00:3056.91145 S, 68.2416 WRRS James Cook JC031
935857CTD or STD cast2009-02-07 04:44:2656.92 S, 68.2399 WRRS James Cook JC031
912152Currents -subsurface Eulerian2009-02-07 04:45:0056.92 S, 68.24 WRRS James Cook JC031
913051Currents -subsurface Eulerian2009-02-07 04:45:0056.92 S, 68.24 WRRS James Cook JC031
1875820Water sample data2009-02-07 06:09:3056.92001 S, 68.23995 WRRS James Cook JC031
2105873Water sample data2009-02-07 06:09:3056.92001 S, 68.23995 WRRS James Cook JC031
2113676Water sample data2009-02-07 06:09:3056.92001 S, 68.23995 WRRS James Cook JC031
912164Currents -subsurface Eulerian2009-02-07 09:11:0056.98 S, 68.25 WRRS James Cook JC031
913063Currents -subsurface Eulerian2009-02-07 09:11:0056.98 S, 68.25 WRRS James Cook JC031
935869CTD or STD cast2009-02-07 09:11:3356.98 S, 68.2499 WRRS James Cook JC031
1875832Water sample data2009-02-07 10:50:3056.98001 S, 68.24995 WRRS James Cook JC031
2105885Water sample data2009-02-07 10:50:3056.98001 S, 68.24995 WRRS James Cook JC031
2113688Water sample data2009-02-07 10:50:3056.98001 S, 68.24995 WRRS James Cook JC031
912176Currents -subsurface Eulerian2009-02-07 14:17:0057.13 S, 68.25 WRRS James Cook JC031
913075Currents -subsurface Eulerian2009-02-07 14:17:0057.13 S, 68.25 WRRS James Cook JC031
935870CTD or STD cast2009-02-07 14:18:0357.1301 S, 68.2501 WRRS James Cook JC031
1875844Water sample data2009-02-07 16:17:0057.13004 S, 68.25 WRRS James Cook JC031
2105897Water sample data2009-02-07 16:17:0057.13004 S, 68.25 WRRS James Cook JC031
912188Currents -subsurface Eulerian2009-02-07 19:57:0057.33067 S, 68.23667 WRRS James Cook JC031
913087Currents -subsurface Eulerian2009-02-07 19:57:0057.33067 S, 68.23667 WRRS James Cook JC031
935882CTD or STD cast2009-02-07 19:58:1257.3307 S, 68.237 WRRS James Cook JC031
1875856Water sample data2009-02-07 21:53:0057.33084 S, 68.23566 WRRS James Cook JC031
2105904Water sample data2009-02-07 21:53:0057.33084 S, 68.23566 WRRS James Cook JC031
2113707Water sample data2009-02-07 21:53:0057.33084 S, 68.23566 WRRS James Cook JC031
935894CTD or STD cast2009-02-08 01:44:0057.58 S, 68.25 WRRS James Cook JC031
935901CTD or STD cast2009-02-09 02:20:3057.8305 S, 68.2388 WRRS James Cook JC031
912207Currents -subsurface Eulerian2009-02-09 09:14:0057.83233 S, 68.23217 WRRS James Cook JC031
913099Currents -subsurface Eulerian2009-02-09 09:14:0057.83233 S, 68.23217 WRRS James Cook JC031
935913CTD or STD cast2009-02-09 09:14:0757.8323 S, 68.2322 WRRS James Cook JC031
1875868Water sample data2009-02-09 11:43:0057.83393 S, 68.22308 WRRS James Cook JC031
2105916Water sample data2009-02-09 11:43:0057.83393 S, 68.22308 WRRS James Cook JC031
2113719Water sample data2009-02-09 11:43:0057.83393 S, 68.22308 WRRS James Cook JC031
935925CTD or STD cast2009-02-09 17:37:1158.0924 S, 68.2187 WRRS James Cook JC031
912219Currents -subsurface Eulerian2009-02-09 17:40:0058.0925 S, 68.21867 WRRS James Cook JC031
913106Currents -subsurface Eulerian2009-02-09 17:40:0058.0925 S, 68.21867 WRRS James Cook JC031
1875881Water sample data2009-02-09 19:41:3058.09357 S, 68.21223 WRRS James Cook JC031
2113720Water sample data2009-02-09 19:41:3058.09357 S, 68.21223 WRRS James Cook JC031
912220Currents -subsurface Eulerian2009-02-10 00:23:0058.33867 S, 68.21483 WRRS James Cook JC031
913118Currents -subsurface Eulerian2009-02-10 00:23:0058.33867 S, 68.21483 WRRS James Cook JC031
935937CTD or STD cast2009-02-10 00:24:5158.3387 S, 68.2149 WRRS James Cook JC031
1875893Water sample data2009-02-10 02:23:3058.34045 S, 68.20933 WRRS James Cook JC031
2105928Water sample data2009-02-10 02:23:3058.34045 S, 68.20933 WRRS James Cook JC031
2113732Water sample data2009-02-10 02:23:3058.34045 S, 68.20933 WRRS James Cook JC031
935949CTD or STD cast2009-02-10 20:05:2858.58 S, 68.2507 WRRS James Cook JC031
912232Currents -subsurface Eulerian2009-02-10 20:07:0058.58 S, 68.25083 WRRS James Cook JC031
913131Currents -subsurface Eulerian2009-02-10 20:07:0058.58 S, 68.25083 WRRS James Cook JC031
1875900Water sample data2009-02-10 22:23:0058.5803 S, 68.24759 WRRS James Cook JC031
2105941Water sample data2009-02-10 22:23:0058.5803 S, 68.24759 WRRS James Cook JC031
2113744Water sample data2009-02-10 22:23:0058.5803 S, 68.24759 WRRS James Cook JC031
912244Currents -subsurface Eulerian2009-02-11 03:12:0058.84133 S, 68.2625 WRRS James Cook JC031
913143Currents -subsurface Eulerian2009-02-11 03:12:0058.84133 S, 68.2625 WRRS James Cook JC031
935950CTD or STD cast2009-02-11 03:12:2658.8413 S, 68.2625 WRRS James Cook JC031
1875912Water sample data2009-02-11 04:57:0058.84148 S, 68.26053 WRRS James Cook JC031
2105953Water sample data2009-02-11 04:57:0058.84148 S, 68.26053 WRRS James Cook JC031
2113756Water sample data2009-02-11 04:57:0058.84148 S, 68.26053 WRRS James Cook JC031
912256Currents -subsurface Eulerian2009-02-11 09:24:0059.09083 S, 68.24533 WRRS James Cook JC031
913155Currents -subsurface Eulerian2009-02-11 09:24:0059.09083 S, 68.24533 WRRS James Cook JC031
935962CTD or STD cast2009-02-11 09:24:4159.0908 S, 68.2453 WRRS James Cook JC031
1875924Water sample data2009-02-11 11:21:0059.09099 S, 68.24358 WRRS James Cook JC031
2105965Water sample data2009-02-11 11:21:0059.09099 S, 68.24358 WRRS James Cook JC031
2113768Water sample data2009-02-11 11:21:0059.09099 S, 68.24358 WRRS James Cook JC031
912268Currents -subsurface Eulerian2009-02-11 15:47:0059.3305 S, 68.24917 WRRS James Cook JC031
913167Currents -subsurface Eulerian2009-02-11 15:47:0059.3305 S, 68.24917 WRRS James Cook JC031
935974CTD or STD cast2009-02-11 15:47:2859.3306 S, 68.2492 WRRS James Cook JC031
1875936Water sample data2009-02-11 17:40:3059.33073 S, 68.24914 WRRS James Cook JC031
2105977Water sample data2009-02-11 17:40:3059.33073 S, 68.24914 WRRS James Cook JC031
2113781Water sample data2009-02-11 17:40:3059.33073 S, 68.24914 WRRS James Cook JC031
935986CTD or STD cast2009-02-11 21:48:0859.5898 S, 68.2374 WRRS James Cook JC031
912281Currents -subsurface Eulerian2009-02-11 21:49:0059.58983 S, 68.2375 WRRS James Cook JC031
913179Currents -subsurface Eulerian2009-02-11 21:49:0059.58983 S, 68.2375 WRRS James Cook JC031
1875948Water sample data2009-02-11 23:34:3059.59001 S, 68.23507 WRRS James Cook JC031
2105989Water sample data2009-02-11 23:34:3059.59001 S, 68.23507 WRRS James Cook JC031
912293Currents -subsurface Eulerian2009-02-12 03:25:0059.81983 S, 68.23967 WRRS James Cook JC031
913180Currents -subsurface Eulerian2009-02-12 03:25:0059.81983 S, 68.23967 WRRS James Cook JC031
935998CTD or STD cast2009-02-12 03:25:2959.8198 S, 68.2397 WRRS James Cook JC031
1875961Water sample data2009-02-12 04:57:3059.81996 S, 68.23994 WRRS James Cook JC031
2105990Water sample data2009-02-12 04:57:3059.81996 S, 68.23994 WRRS James Cook JC031
2113793Water sample data2009-02-12 04:57:3059.81996 S, 68.23994 WRRS James Cook JC031
912300Currents -subsurface Eulerian2009-02-12 08:35:0060.07033 S, 68.18933 WRRS James Cook JC031
913192Currents -subsurface Eulerian2009-02-12 08:35:0060.07033 S, 68.18933 WRRS James Cook JC031
936001CTD or STD cast2009-02-12 08:35:3660.0704 S, 68.1894 WRRS James Cook JC031
1875973Water sample data2009-02-12 10:08:3060.07066 S, 68.19079 WRRS James Cook JC031
2106004Water sample data2009-02-12 10:08:3060.07066 S, 68.19079 WRRS James Cook JC031
912312Currents -subsurface Eulerian2009-02-12 13:47:0060.32 S, 68.12 WRRS James Cook JC031
913211Currents -subsurface Eulerian2009-02-12 13:47:0060.32 S, 68.12 WRRS James Cook JC031
936013CTD or STD cast2009-02-12 13:47:5160.32 S, 68.1199 WRRS James Cook JC031
1875985Water sample data2009-02-12 15:35:3060.32007 S, 68.12007 WRRS James Cook JC031
2106016Water sample data2009-02-12 15:35:3060.32007 S, 68.12007 WRRS James Cook JC031
2113800Water sample data2009-02-12 15:35:3060.32007 S, 68.12007 WRRS James Cook JC031
912324Currents -subsurface Eulerian2009-02-12 19:34:0060.58 S, 68.06017 WRRS James Cook JC031
913223Currents -subsurface Eulerian2009-02-12 19:34:0060.58 S, 68.06017 WRRS James Cook JC031
936025CTD or STD cast2009-02-12 19:34:0860.5801 S, 68.0601 WRRS James Cook JC031
1875997Water sample data2009-02-12 21:24:0060.58 S, 68.05999 WRRS James Cook JC031
2106028Water sample data2009-02-12 21:24:0060.58 S, 68.05999 WRRS James Cook JC031
912336Currents -subsurface Eulerian2009-02-13 01:25:0060.82883 S, 67.99017 WRRS James Cook JC031
913235Currents -subsurface Eulerian2009-02-13 01:25:0060.82883 S, 67.99017 WRRS James Cook JC031
936037CTD or STD cast2009-02-13 01:25:5460.8289 S, 67.9902 WRRS James Cook JC031
1876000Water sample data2009-02-13 03:04:0060.82853 S, 67.98751 WRRS James Cook JC031
2106041Water sample data2009-02-13 03:04:0060.82853 S, 67.98751 WRRS James Cook JC031
2113812Water sample data2009-02-13 03:04:0060.82853 S, 67.98751 WRRS James Cook JC031
936049CTD or STD cast2009-02-13 07:05:4461.0197 S, 67.6648 WRRS James Cook JC031
912348Currents -subsurface Eulerian2009-02-13 07:06:0061.01967 S, 67.66483 WRRS James Cook JC031
913247Currents -subsurface Eulerian2009-02-13 07:06:0061.01967 S, 67.66483 WRRS James Cook JC031
1876012Water sample data2009-02-13 08:47:3061.01972 S, 67.66612 WRRS James Cook JC031
2106053Water sample data2009-02-13 08:47:3061.01972 S, 67.66612 WRRS James Cook JC031
2113824Water sample data2009-02-13 08:47:3061.01972 S, 67.66612 WRRS James Cook JC031
912361Currents -subsurface Eulerian2009-02-13 13:28:0061.20983 S, 67.30717 WRRS James Cook JC031
913259Currents -subsurface Eulerian2009-02-13 13:28:0061.20983 S, 67.30717 WRRS James Cook JC031
936050CTD or STD cast2009-02-13 13:28:2461.2098 S, 67.3072 WRRS James Cook JC031
1876024Water sample data2009-02-13 15:17:3061.20979 S, 67.3064 WRRS James Cook JC031
2106065Water sample data2009-02-13 15:17:3061.20979 S, 67.3064 WRRS James Cook JC031
2113836Water sample data2009-02-13 15:17:3061.20979 S, 67.3064 WRRS James Cook JC031
912373Currents -subsurface Eulerian2009-02-13 19:59:0061.40967 S, 66.99483 WRRS James Cook JC031
913260Currents -subsurface Eulerian2009-02-13 19:59:0061.40967 S, 66.99483 WRRS James Cook JC031
936062CTD or STD cast2009-02-13 19:59:2461.4096 S, 66.9949 WRRS James Cook JC031
1876036Water sample data2009-02-13 21:52:0061.4095 S, 66.99104 WRRS James Cook JC031
2106077Water sample data2009-02-13 21:52:0061.4095 S, 66.99104 WRRS James Cook JC031
912385Currents -subsurface Eulerian2009-02-14 02:02:0061.6 S, 66.66983 WRRS James Cook JC031
913272Currents -subsurface Eulerian2009-02-14 02:02:0061.6 S, 66.66983 WRRS James Cook JC031
936074CTD or STD cast2009-02-14 02:03:2761.6 S, 66.6698 WRRS James Cook JC031
1876048Water sample data2009-02-14 03:42:3061.6 S, 66.66992 WRRS James Cook JC031
2106089Water sample data2009-02-14 03:42:3061.6 S, 66.66992 WRRS James Cook JC031
2113848Water sample data2009-02-14 03:42:3061.6 S, 66.66992 WRRS James Cook JC031
912397Currents -subsurface Eulerian2009-02-14 07:32:0061.8 S, 66.32017 WRRS James Cook JC031
913284Currents -subsurface Eulerian2009-02-14 07:32:0061.8 S, 66.32017 WRRS James Cook JC031
936086CTD or STD cast2009-02-14 07:32:3661.8 S, 66.3202 WRRS James Cook JC031
1876061Water sample data2009-02-14 09:06:3061.79998 S, 66.3201 WRRS James Cook JC031
2106090Water sample data2009-02-14 09:06:3061.79998 S, 66.3201 WRRS James Cook JC031
912404Currents -subsurface Eulerian2009-02-14 13:07:0062.0 S, 65.95017 WRRS James Cook JC031
913296Currents -subsurface Eulerian2009-02-14 13:07:0062.0 S, 65.95017 WRRS James Cook JC031
936098CTD or STD cast2009-02-14 13:07:4462.0 S, 65.9502 WRRS James Cook JC031
1876073Water sample data2009-02-14 14:48:0062.00001 S, 65.9501 WRRS James Cook JC031
2106108Water sample data2009-02-14 14:48:0062.00001 S, 65.9501 WRRS James Cook JC031
2113861Water sample data2009-02-14 14:48:0062.00001 S, 65.9501 WRRS James Cook JC031
912416Currents -subsurface Eulerian2009-02-14 18:40:0062.14 S, 65.58 WRRS James Cook JC031
913303Currents -subsurface Eulerian2009-02-14 18:40:0062.14 S, 65.58 WRRS James Cook JC031
936105CTD or STD cast2009-02-14 18:40:1962.1401 S, 65.58 WRRS James Cook JC031
1876085Water sample data2009-02-14 20:23:0062.14004 S, 65.5801 WRRS James Cook JC031
936117CTD or STD cast2009-02-15 00:08:4762.2722 S, 65.192 WRRS James Cook JC031
912428Currents -subsurface Eulerian2009-02-15 00:09:0062.27217 S, 65.192 WRRS James Cook JC031
913315Currents -subsurface Eulerian2009-02-15 00:09:0062.27217 S, 65.192 WRRS James Cook JC031
912441Currents -subsurface Eulerian2009-02-15 17:10:0062.27992 S, 65.21018 WRRS James Cook JC031
913327Currents -subsurface Eulerian2009-02-15 17:10:0062.27992 S, 65.21018 WRRS James Cook JC031
936129CTD or STD cast2009-02-15 17:11:2762.2799 S, 65.2102 WRRS James Cook JC031
912453Currents -subsurface Eulerian2009-02-16 02:44:0062.28 S, 65.21 WRRS James Cook JC031
913339Currents -subsurface Eulerian2009-02-16 02:44:0062.28 S, 65.21 WRRS James Cook JC031
936130CTD or STD cast2009-02-16 02:45:1062.2799 S, 65.2101 WRRS James Cook JC031
1876097Water sample data2009-02-16 04:30:0062.27995 S, 65.21007 WRRS James Cook JC031
2106121Water sample data2009-02-16 04:30:0062.27995 S, 65.21007 WRRS James Cook JC031
2113873Water sample data2009-02-16 04:30:0062.27995 S, 65.21007 WRRS James Cook JC031
912465Currents -subsurface Eulerian2009-02-16 08:00:0062.38883 S, 64.82283 WRRS James Cook JC031
913340Currents -subsurface Eulerian2009-02-16 08:00:0062.38883 S, 64.82283 WRRS James Cook JC031
936142CTD or STD cast2009-02-16 08:00:0462.3888 S, 64.8228 WRRS James Cook JC031
1876104Water sample data2009-02-16 09:37:3062.38834 S, 64.8206 WRRS James Cook JC031
2113885Water sample data2009-02-16 09:37:3062.38834 S, 64.8206 WRRS James Cook JC031
912477Currents -subsurface Eulerian2009-02-16 12:58:0062.5 S, 64.46 WRRS James Cook JC031
936154CTD or STD cast2009-02-16 12:58:5062.5 S, 64.46 WRRS James Cook JC031
1876116Water sample data2009-02-16 14:47:3062.49998 S, 64.46004 WRRS James Cook JC031
2106133Water sample data2009-02-16 14:47:3062.49998 S, 64.46004 WRRS James Cook JC031
2113897Water sample data2009-02-16 14:47:3062.49998 S, 64.46004 WRRS James Cook JC031
912489Currents -subsurface Eulerian2009-02-16 18:27:0062.60833 S, 64.07983 WRRS James Cook JC031
913364Currents -subsurface Eulerian2009-02-16 18:27:0062.60833 S, 64.07983 WRRS James Cook JC031
936166CTD or STD cast2009-02-16 18:27:1962.6098 S, 64.0798 WRRS James Cook JC031
1876128Water sample data2009-02-16 20:06:3062.60993 S, 64.07925 WRRS James Cook JC031
2113904Water sample data2009-02-16 20:06:3062.60993 S, 64.07925 WRRS James Cook JC031
912490Currents -subsurface Eulerian2009-02-16 23:04:0062.69 S, 63.9 WRRS James Cook JC031
913376Currents -subsurface Eulerian2009-02-16 23:04:0062.69 S, 63.9 WRRS James Cook JC031
936178CTD or STD cast2009-02-16 23:04:3762.69 S, 63.9 WRRS James Cook JC031
1876141Water sample data2009-02-17 00:58:0062.68996 S, 63.90005 WRRS James Cook JC031
2106145Water sample data2009-02-17 00:58:0062.68996 S, 63.90005 WRRS James Cook JC031
2113916Water sample data2009-02-17 00:58:0062.68996 S, 63.90005 WRRS James Cook JC031
936191CTD or STD cast2009-02-17 04:19:5762.7801 S, 63.7 WRRS James Cook JC031
912508Currents -subsurface Eulerian2009-02-17 04:20:0062.78017 S, 63.7 WRRS James Cook JC031
913388Currents -subsurface Eulerian2009-02-17 04:20:0062.78017 S, 63.7 WRRS James Cook JC031
1876153Water sample data2009-02-17 05:52:3062.78009 S, 63.69994 WRRS James Cook JC031
2106157Water sample data2009-02-17 05:52:3062.78009 S, 63.69994 WRRS James Cook JC031
2113928Water sample data2009-02-17 05:52:3062.78009 S, 63.69994 WRRS James Cook JC031
912521Currents -subsurface Eulerian2009-02-17 20:11:0062.81 S, 63.62 WRRS James Cook JC031
913407Currents -subsurface Eulerian2009-02-17 20:11:0062.81 S, 63.62 WRRS James Cook JC031
936209CTD or STD cast2009-02-17 20:11:0662.81 S, 63.62 WRRS James Cook JC031
1876165Water sample data2009-02-17 21:45:0062.81003 S, 63.62011 WRRS James Cook JC031
912533Currents -subsurface Eulerian2009-02-18 00:10:0062.86 S, 63.52017 WRRS James Cook JC031
913419Currents -subsurface Eulerian2009-02-18 00:10:0062.86 S, 63.52017 WRRS James Cook JC031
936210CTD or STD cast2009-02-18 00:10:4062.86 S, 63.5202 WRRS James Cook JC031
1876177Water sample data2009-02-18 01:08:0062.86004 S, 63.52015 WRRS James Cook JC031
2106169Water sample data2009-02-18 01:08:0062.86004 S, 63.52015 WRRS James Cook JC031
2113941Water sample data2009-02-18 01:08:0062.86004 S, 63.52015 WRRS James Cook JC031
912545Currents -subsurface Eulerian2009-02-18 03:10:0062.94 S, 63.45017 WRRS James Cook JC031
913420Currents -subsurface Eulerian2009-02-18 03:10:0062.94 S, 63.45017 WRRS James Cook JC031
936222CTD or STD cast2009-02-18 03:11:1862.9401 S, 63.4501 WRRS James Cook JC031
1876189Water sample data2009-02-18 03:53:0062.94002 S, 63.45004 WRRS James Cook JC031
2106170Water sample data2009-02-18 03:53:0062.94002 S, 63.45004 WRRS James Cook JC031
912557Currents -subsurface Eulerian2009-02-18 05:30:0062.98 S, 63.39017 WRRS James Cook JC031
913432Currents -subsurface Eulerian2009-02-18 05:30:0062.98 S, 63.39017 WRRS James Cook JC031
936234CTD or STD cast2009-02-18 05:30:2562.98 S, 63.3901 WRRS James Cook JC031
1876190Water sample data2009-02-18 05:57:3062.98003 S, 63.39009 WRRS James Cook JC031
2106182Water sample data2009-02-18 05:57:3062.98003 S, 63.39009 WRRS James Cook JC031
2113953Water sample data2009-02-18 05:57:3062.98003 S, 63.39009 WRRS James Cook JC031
912569Currents -subsurface Eulerian2009-02-18 08:04:0063.15 S, 63.20017 WRRS James Cook JC031
913444Currents -subsurface Eulerian2009-02-18 08:04:0063.15 S, 63.20017 WRRS James Cook JC031
936246CTD or STD cast2009-02-18 08:05:0663.15 S, 63.2001 WRRS James Cook JC031
1876208Water sample data2009-02-18 08:29:0063.15001 S, 63.20014 WRRS James Cook JC031
2113965Water sample data2009-02-18 08:29:0063.15001 S, 63.20014 WRRS James Cook JC031
912570Currents -subsurface Eulerian2009-02-18 11:29:0063.48 S, 63.17 WRRS James Cook JC031
913456Currents -subsurface Eulerian2009-02-18 11:29:0063.48 S, 63.17 WRRS James Cook JC031
936258CTD or STD cast2009-02-18 11:29:5063.48 S, 63.1699 WRRS James Cook JC031
1876221Water sample data2009-02-18 12:03:0063.48 S, 63.16999 WRRS James Cook JC031
2113977Water sample data2009-02-18 12:03:0063.48 S, 63.16999 WRRS James Cook JC031
912582Currents -subsurface Eulerian2009-02-18 15:04:0063.81017 S, 63.12 WRRS James Cook JC031
913468Currents -subsurface Eulerian2009-02-18 15:04:0063.81017 S, 63.12 WRRS James Cook JC031
936271CTD or STD cast2009-02-18 15:04:3763.8101 S, 63.12 WRRS James Cook JC031
1876233Water sample data2009-02-18 15:34:0063.81005 S, 63.11999 WRRS James Cook JC031
2106194Water sample data2009-02-18 15:34:0063.81005 S, 63.11999 WRRS James Cook JC031
2113989Water sample data2009-02-18 15:34:0063.81005 S, 63.11999 WRRS James Cook JC031
912594Currents -subsurface Eulerian2009-02-18 18:38:0064.14 S, 63.08 WRRS James Cook JC031
913481Currents -subsurface Eulerian2009-02-18 18:38:0064.14 S, 63.08 WRRS James Cook JC031
936283CTD or STD cast2009-02-18 18:38:5564.14 S, 63.0799 WRRS James Cook JC031
1876245Water sample data2009-02-18 19:10:0064.13998 S, 63.07984 WRRS James Cook JC031
2113990Water sample data2009-02-18 19:10:0064.13998 S, 63.07984 WRRS James Cook JC031
1088422CTD or STD cast2010-12-25 06:57:0062.8567 S, 63.52256 WRRS James Cook JC054 (UKD-2)
1650418Currents -subsurface Eulerian2010-12-25 06:57:2462.85718 S, 63.52492 WRRS James Cook JC054 (UKD-2)
1649927CTD or STD cast2010-12-25 11:48:0062.6035 S, 64.0843 WRRS James Cook JC054 (UKD-2)
1088434CTD or STD cast2010-12-25 12:04:0062.60287 S, 64.08545 WRRS James Cook JC054 (UKD-2)
1650431Currents -subsurface Eulerian2010-12-25 12:08:0062.60286 S, 64.08544 WRRS James Cook JC054 (UKD-2)
1088446CTD or STD cast2010-12-25 19:38:0062.35086 S, 64.648 WRRS James Cook JC054 (UKD-2)
1650443Currents -subsurface Eulerian2010-12-25 19:41:2362.35084 S, 64.64796 WRRS James Cook JC054 (UKD-2)
1649939CTD or STD cast2010-12-26 02:23:0062.0974 S, 65.2032 WRRS James Cook JC054 (UKD-2)
1088471CTD or STD cast2010-12-26 02:42:0062.09567 S, 65.20982 WRRS James Cook JC054 (UKD-2)
1650455Currents -subsurface Eulerian2010-12-26 02:46:1562.09817 S, 65.20414 WRRS James Cook JC054 (UKD-2)
1088483CTD or STD cast2010-12-26 08:58:0061.84499 S, 65.76395 WRRS James Cook JC054 (UKD-2)
1650467Currents -subsurface Eulerian2010-12-26 09:03:5261.84496 S, 65.7639 WRRS James Cook JC054 (UKD-2)
1649940CTD or STD cast2010-12-26 16:48:0061.4648 S, 66.6016 WRRS James Cook JC054 (UKD-2)
1088495CTD or STD cast2010-12-26 17:01:0061.46475 S, 66.59983 WRRS James Cook JC054 (UKD-2)
1650479Currents -subsurface Eulerian2010-12-26 17:05:2261.46474 S, 66.59984 WRRS James Cook JC054 (UKD-2)
1088502CTD or STD cast2010-12-27 01:49:0061.08263 S, 67.43747 WRRS James Cook JC054 (UKD-2)
1650480Currents -subsurface Eulerian2010-12-27 01:52:4661.08482 S, 67.44053 WRRS James Cook JC054 (UKD-2)
1088514CTD or STD cast2010-12-27 09:23:0060.65479 S, 68.00557 WRRS James Cook JC054 (UKD-2)
1650492Currents -subsurface Eulerian2010-12-27 09:27:4060.65118 S, 68.00994 WRRS James Cook JC054 (UKD-2)
1649952CTD or STD cast2010-12-27 19:48:0060.1099 S, 68.04 WRRS James Cook JC054 (UKD-2)
1650511Currents -subsurface Eulerian2010-12-27 21:49:1360.1113 S, 68.05102 WRRS James Cook JC054 (UKD-2)
1088526CTD or STD cast2010-12-27 21:51:0060.11191 S, 68.05752 WRRS James Cook JC054 (UKD-2)
1088538CTD or STD cast2010-12-28 03:37:0059.74116 S, 68.06239 WRRS James Cook JC054 (UKD-2)
1650523Currents -subsurface Eulerian2010-12-28 03:40:4459.74786 S, 68.05942 WRRS James Cook JC054 (UKD-2)
1649964CTD or STD cast2010-12-28 10:00:0059.3882 S, 68.0799 WRRS James Cook JC054 (UKD-2)
1088551CTD or STD cast2010-12-28 10:19:0059.38238 S, 68.07612 WRRS James Cook JC054 (UKD-2)
1650535Currents -subsurface Eulerian2010-12-28 10:22:0959.38896 S, 68.07878 WRRS James Cook JC054 (UKD-2)
1088563CTD or STD cast2010-12-28 17:21:0059.01535 S, 68.0658 WRRS James Cook JC054 (UKD-2)
1650547Currents -subsurface Eulerian2010-12-28 17:21:3259.0262 S, 68.10002 WRRS James Cook JC054 (UKD-2)
1649976CTD or STD cast2010-12-29 02:50:0058.6655 S, 68.1195 WRRS James Cook JC054 (UKD-2)
1088575CTD or STD cast2010-12-29 03:20:0058.65477 S, 68.10781 WRRS James Cook JC054 (UKD-2)
1650559Currents -subsurface Eulerian2010-12-29 03:24:2558.66442 S, 68.11832 WRRS James Cook JC054 (UKD-2)
1088599CTD or STD cast2010-12-29 11:08:0058.29855 S, 68.13619 WRRS James Cook JC054 (UKD-2)
1650560Currents -subsurface Eulerian2010-12-29 11:12:2258.3057 S, 68.13886 WRRS James Cook JC054 (UKD-2)
1649988CTD or STD cast2010-12-29 21:46:0057.9441 S, 68.1593 WRRS James Cook JC054 (UKD-2)
1088606CTD or STD cast2010-12-29 21:53:0057.93721 S, 68.16622 WRRS James Cook JC054 (UKD-2)
1650572Currents -subsurface Eulerian2010-12-29 22:02:5757.944 S, 68.15972 WRRS James Cook JC054 (UKD-2)
1088618CTD or STD cast2010-12-30 07:20:0057.58198 S, 68.18309 WRRS James Cook JC054 (UKD-2)
1650584Currents -subsurface Eulerian2010-12-30 07:24:2357.58446 S, 68.1812 WRRS James Cook JC054 (UKD-2)
1650001CTD or STD cast2010-12-30 15:51:0057.2215 S, 68.2 WRRS James Cook JC054 (UKD-2)
1088631CTD or STD cast2010-12-30 16:07:0057.22496 S, 68.17921 WRRS James Cook JC054 (UKD-2)
1650596Currents -subsurface Eulerian2010-12-30 16:09:1557.22144 S, 68.19829 WRRS James Cook JC054 (UKD-2)
1650013CTD or STD cast2010-12-30 23:43:0056.8761 S, 68.2183 WRRS James Cook JC054 (UKD-2)
1088643CTD or STD cast2010-12-30 23:58:0056.87767 S, 68.21201 WRRS James Cook JC054 (UKD-2)
1650603Currents -subsurface Eulerian2010-12-31 00:01:4956.87642 S, 68.21808 WRRS James Cook JC054 (UKD-2)
1726524Currents -subsurface Eulerian2012-03-14 03:20:3761.84448 S, 65.76288 WRRS James Cook JC069 (UKD-3)
1726536Currents -subsurface Eulerian2012-03-14 11:56:3961.17012 S, 67.25708 WRRS James Cook JC069 (UKD-3)
1726548Currents -subsurface Eulerian2012-03-14 20:23:3060.33326 S, 67.99958 WRRS James Cook JC069 (UKD-3)
1726561Currents -subsurface Eulerian2012-03-15 06:19:1059.33408 S, 67.99925 WRRS James Cook JC069 (UKD-3)
1726573Currents -subsurface Eulerian2012-03-15 18:27:0858.329 S, 67.99166 WRRS James Cook JC069 (UKD-3)
1726585Currents -subsurface Eulerian2012-03-17 00:29:3258.32466 S, 67.99128 WRRS James Cook JC069 (UKD-3)