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Metadata Report for BODC Series Reference Number 1965992


Metadata Summary

Data Description

Data Category Water sample data
Instrument Type
NameCategories
Niskin bottle  discrete water samplers
Turner Designs Trilogy fluorometer  bench fluorometers
Instrument Mounting lowered unmanned submersible
Originating Country United Kingdom
Originator Ms Sharon McNeill
Originating Organization Scottish Association for Marine Science
Processing Status banked
Online delivery of data Download available - Ocean Data View (ODV) format
Project(s) Changing Arctic Ocean
 

Data Identifiers

Originator's Identifier JR17007_CTD_PIGX_3200:CTD014
BODC Series Reference 1965992
 

Time Co-ordinates(UT)

Start Time (yyyy-mm-dd hh:mm) 2018-07-22 10:35
End Time (yyyy-mm-dd hh:mm) -
Nominal Cycle Interval -
 

Spatial Co-ordinates

Latitude 80.11670 N ( 80° 7.0' N )
Longitude 30.06827 E ( 30° 4.1' E )
Positional Uncertainty 0.0 to 0.01 n.miles
Minimum Sensor or Sampling Depth 59.7 m
Maximum Sensor or Sampling Depth 59.7 m
Minimum Sensor or Sampling Height 222.1 m
Maximum Sensor or Sampling Height 222.1 m
Sea Floor Depth 281.8 m
Sea Floor Depth Source BUDS
Sensor or Sampling Distribution Unspecified -
Sensor or Sampling Depth Datum Unspecified -
Sea Floor Depth Datum Instantaneous - Depth measured below water line or instantaneous water body surface
 

Parameters

BODC CODERankUnitsTitle
ADEPZZ011MetresDepth (spatial coordinate) relative to water surface in the water body
BOTTFLAG1Not applicableSampling process quality flag (BODC C22)
CLSDFLP11Milligrams per cubic metreConcentration standard deviation of chlorophyll-a {chl-a CAS 479-61-8} per unit volume of the water body [particulate >GF/F phase] by filtration, acetone extraction and fluorometry
CPHLFLP11Milligrams per cubic metreConcentration of chlorophyll-a {chl-a CAS 479-61-8} per unit volume of the water body [particulate >GF/F phase] by filtration, acetone extraction and fluorometry
FIRSEQID1DimensionlessBottle firing sequence number
PHEOPH011Micrograms per litreConcentration of phaeophytin-a {pheophytin-a CAS 603-17-8} per unit volume of the water body [particulate >GF/F phase] by filtration, acetone extraction and fluorometry
PHEOPHSD1Micrograms per litreConcentration standard deviation of phaeophytin-a {pheophytin-a CAS 603-17-8} per unit volume of the water body [particulate >GF/F phase] by filtration, acetone extraction and fluorometry
ROSPOSID1DimensionlessBottle rosette position identifier
SAMPRFNM1DimensionlessSample reference number

Definition of BOTTFLAG

BOTTFLAGDefinition
0The sampling event occurred without any incident being reported to BODC.
1The filter in an in-situ sampling pump physically ruptured during sample resulting in an unquantifiable loss of sampled material.
2Analytical evidence (e.g. surface water salinity measured on a sample collected at depth) indicates that the water sample has been contaminated by water from depths other than the depths of sampling.
3The feedback indicator on the deck unit reported that the bottle closure command had failed. General Oceanics deck units used on NERC vessels in the 80s and 90s were renowned for reporting misfires when the bottle had been closed. This flag is also suitable for when a trigger command is mistakenly sent to a bottle that has previously been fired.
4During the sampling deployment the bottle was fired in an order other than incrementing rosette position. Indicative of the potential for errors in the assignment of bottle firing depth, especially with General Oceanics rosettes.
5Water was reported to be escaping from the bottle as the rosette was being recovered.
6The bottle seals were observed to be incorrectly seated and the bottle was only part full of water on recovery.
7Either the bottle was found to contain no sample on recovery or there was no bottle fitted to the rosette position fired (but SBE35 record may exist).
8There is reason to doubt the accuracy of the sampling depth associated with the sample.
9The bottle air vent had not been closed prior to deployment giving rise to a risk of sample contamination through leakage.

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 supplied by Natural Environment Research Council (NERC)

You must always use the following attribution statement to acknowledge the source of the information: "Contains data supplied by Natural Environment Research Council."


Narrative Documents

Niskin Bottle

The Niskin bottle is a device used by oceanographers to collect subsurface seawater samples. It is a plastic bottle with caps and rubber seals at each end and is deployed with the caps held open, allowing free-flushing of the bottle as it moves through the water column.

Standard Niskin

The standard version of the bottle includes a plastic-coated metal spring or elastic cord running through the interior of the bottle that joins the two caps, and the caps are held open against the spring by plastic lanyards. When the bottle reaches the desired depth the lanyards are released by a pressure-actuated switch, command signal or messenger weight and the caps are forced shut and sealed, trapping the seawater sample.

Lever Action Niskin

The Lever Action Niskin Bottle differs from the standard version, in that the caps are held open during deployment by externally mounted stainless steel springs rather than an internal spring or cord. Lever Action Niskins are recommended for applications where a completely clear sample chamber is critical or for use in deep cold water.

Clean Sampling

A modified version of the standard Niskin bottle has been developed for clean sampling. This is teflon-coated and uses a latex cord to close the caps rather than a metal spring. The clean version of the Levered Action Niskin bottle is also teflon-coated and uses epoxy covered springs in place of the stainless steel springs. These bottles are specifically designed to minimise metal contamination when sampling trace metals.

Deployment

Bottles may be deployed singly clamped to a wire or in groups of up to 48 on a rosette. Standard bottles and Lever Action bottles have a capacity between 1.7 and 30 L. Reversing thermometers may be attached to a spring-loaded disk that rotates through 180° on bottle closure.

Turner Designs Trilogy Fluorometer

The Trilogy Laboratory Fluorometer is a compact laboratory instrument for making fluorescence, absorbance and turbidity measurements using the appropriate snap-in Application Module.

The following snap-in application modules are available:

Application Minimum Detection Limit Linear Range Comments
Ammonium 0.05µmol 0-50µmol  
CDOM/FDOM 0.1 ppb 0 - 1000 ppb Quinine sulphate
Chlorophyll-a extracted (acidification) 0.025 µg l-1 0-300 µg l-1  
Chlorophyll-a extracted (non-acidification) 0.025 µg l-1 0-300 µg l-1  
Chlorophyll in vivo 0.025 µg l-1 0-300 µg l-1  
Fluorescein dye standard range 0.01 ppb 0-200 ppb  
Fluorescein dye extended range 0.75 ppb 0-8000 ppb Minicell adapter P/N 8000-936 and P/N 7000-950 required
Histamine 0.001 ppm 0-100 ppm  
Histamine (PTSA) 0.5 ppm 0-2,000 ppm  
Nitrate (absorbance) 0.04 mg l-1 0 - 14 mg l-1  
Crude Oil 0.2 ppb 0 - 2,000 ppb Quinine sulphate
Refined Oil 0.25 ppb 0 - 6,000 ppb Napthalene 1,5 Naphthalene disulfonic disodium salt
Optical Brighteners 1 ppb 0 - 10,000 ppb Quinine sulphate
Phosphate (absorbance) 1 µg l-1 0 - 930 µg l-1  
Phycocyanin (freshwater) 150 cells ml-1 0 - 150,000 cells ml-1  
Phycoerythrin (marine) 150 cells ml-1 0 - 150,000 cells ml-1  
Pyrene tetra sulfonic acid (PTSA) 0.1 ppb >10,000 ppb  
Rhodamine WT 0.01 ppb 0 - 500 ppb  
Silicate (absorbance) 3 µg l-1 0 - 3000 µg l-1  
Turbidity 0.05 NTU 0 - 1000 NTU  

For extracted chlorophyll measurements using EPA 445, Trilogy automatically calculates the concentration using the filtered and solvent volumes. The turbidity modules use an IRLED with a wavelength of 860nm to meet ISO 7027 standards for turbidity water quality measurements.

Specifications

Power 100 to 240VAC Universal Power Supply, Output 12VDC 0.84A Max
Operating Temperature 15-40 °C
Size 32.82 cm depth, 26.52 cm width, 21.39 height
Weight 3.65 kg
Readout Direct concentration (µg l-1, ppb etc.)
Light source and detector Light emitting diode and photodiode
Data output 100% ASCII format through a 9-pin RS-232 serial cable at 9600 baud
PC operating system Windows 98 or later

Further details can be found in the manufacturer's specification sheet.

JR17007 Water Samples for Chlorophyll-a and Phaeophytin-a determination from CTD bottles

Originator's Protocol for Data Acquisition and Analysis

Water samples were collected from 7 stations in the Barents Sea during the early summer period of July-August 2018 onboard cruise JR17007. Seawater was collected from five depths within the euphotic zone, including the sea surface and the fluorescence maximum from a standard environmental CTD cast as close to midday as possible. The water was pre-screened with a 200µm mesh and was collected in five 10 litre carboys. These were blacked out using black polythene bags and wrapped in tape. Water was collected through tubing that was blacked out using black tape. Both carboys and tubing were thoroughly rinsed with seawater from the sample depth before the water was collected. Samples were transferred to the CT room, which was set at 4°C.For chlorophyll-a and fluorescence measurements between 0.5 and 1L of water were filtered through a 25mm GFF filter and frozen. These were analysed back in the UK at Scottish Association Marine Science (SAMS).

At SAMS, the samples were extracted in 8ml of 90% neutralised acetone 18-24hr overnight in the dark at 4°C (no more than 24hours), filters then sonicated for 1 minute on ice, centrifuged at 4000rpm for 6 min at 4°C then measured on a Trilogy Turner fluorometer. The fluorometer was calibrated using chla extract from spinach (Sigma Aldrich C5753-1MG), the working chlorophyll stock concentration was verified by measurements taken by a scanning spectrometer and calculations applied. Standards and samples were kept at the same temperature for analysis on the fluorometer, and kept in dimmed light. Blanks (90% neutralised acetone) were measured every 12 samples and a solid state secondary standard (Turner designs P/No 8000-952) to check the stability of the fluorometer and to account for drift of the instrument.

Instrumentation Description

Trilogy Turner fluorometer

BODC Data Processing Procedures

Data were submitted in .xlsx spreadsheet and contained chlorophyll-a and phaeophytin data with the associated standard deviations. Additional metadata such as date, station, ctd number, event number, sample depth (m), niskin bottle number, number of replicates and volume filtered (L per replicate) were also provided by the originator.

The data were reformatted and assigned BODC parameter codes. Quality control checks were made and BODC applied flags were applicable. The data were then loaded into the BODC database using established BODC data banking procedures.

A parameter mapping table is provided below:

Originator's Parameter Unit BODC Parameter Code BODC Unit Comments
Chla µg/l CPHLFLP1 mg/m3 Equivalent units
Standard deviation Chla µg/l CLSDFLP1 mg/m3 Equivalent units
Phaeo µg/l PHEOPH01 µg/l -
Standard deviation Phaeo µg/l PHEOPHSD µg/l -

Data Quality Report

No data quality issues to report.


Project Information

Changing Arctic Ocean: Implications for marine biology and biogeochemistry

Changing Arctic Ocean (CAO) is a £16 million, five year (2017-2022) research programme initially funded by the Natural Environment Research Council (NERC). The aim of the CAO programme is to understand how change in the physical environment (ice and ocean) will affect the large-scale ecosystem structure and biogeochemical functioning of the Arctic Ocean, the potential major impacts and provide projections for future ecosystem services. In July 2018, additional projects were added to the programme that were jointly funded by NERC and the German Federal Ministry of Education and Research.

Background

The Arctic Ocean is responding to global climate change in ways that are not yet fully understood and in some cases, not yet identified. The impacts of change in the Arctic are global in range and international in importance. To achieve the aim, the programme has two key research challenges:

  • To develop quantified understanding of the structure and functioning of Arctic ecosystems.
  • To understand the sensitivity of Arctic ecosystem structure, functioning and services to multiple stressors and the development of projections of the impacts of change.

The decision to fund the CAO project was both scientific and political and is the second largest research programme funded by NERC.

The programme involves 33 organisations, the majority of which are research institutions in the UK and Germany, and over 170 scientists. The programme consists of four large projects with an additional 12 research projects added in July 2018.

Further information can be found on the Changing Arctic Ocean website.

Participants

There are 33 organisations involved in the Changing Arctic Ocean project, these are:

  • Alfred Wegener Institut (AWI)
  • Bangor University
  • British Antarctic Survey (BAS)
  • Centre for Environment, Fisheries and Aquaculture Science (CEFAS)
  • Durham University
  • GEOMAR
  • Helmholtz-Zentrum Geesthacht Centre for Materials and Coastal Research
  • Lancaster University
  • Marine Biological Association (MBA)
  • Max Planck Institute for the Science of Human History
  • National Oceanography Centre (NOC)
  • Newcastle University
  • Northumbria University
  • Ocean Atmosphere Systems GmbH
  • Plymouth Marine Laboratory (PML)
  • Scottish Association for Marine Science (SAMS)
  • Scottish Universities Environmental Research Centre (SUERC)
  • Université Libre de Bruxelles
  • University College London (UCL)
  • University of Bristol
  • University of East Anglia (UEA)
  • University of Edinburgh
  • University of Glasgow
  • University of Huddersfield
  • University of Leeds
  • University of Liverpool
  • University of Manchester
  • University of Oldenburg
  • University of Oxford
  • University of Southampton
  • University of St Andrews
  • University of Stirling
  • University of Strathclyde

In addition to the core organisation, there are a number of international collaborators.

Research Details

The four large projects funded by NERC are:

  • Arctic Productivity in the seasonal Ice Zone (Arctic PRIZE)
  • Can we detect changes in Arctic ecosystems? (ARISE)
  • The Changing Arctic Ocean Seafloor (ChAOS) - How changing sea ice conditions impact biological communities, biogeochemical processes and ecosystems
  • Mechanistic understanding of the role of diatoms in the success of the Arctic Calanus complex and implications for a warmer Arctic (DIAPOD)

The additional 12 projects added in July 2018 funded jointly by NERC and the German Federal Ministry of Education and Research are:

  • Advective Pathways of nutrients and key Ecological substances in the Arctic (APEAR)
  • How will changing freshwater export and terrestrial permafrost thaw influence the Arctic Ocean? (CACOON)
  • Chronobiology of changing Arctic Sea Ecosystems (CHASE)
  • Potential benefits and risks of borealisation for fish stocks and ecosystems in a changing Arctic Ocean (Coldfish)
  • Diatom Autecological Responses with Changes To Ice Cover (Diatom-ARCTIC)
  • Ecosystem functions controlled by sea ice and light in a changing Arctic (Eco-Light)
  • Effects of ice stressors and pollutants on the Arctic marine cryosphere (EISPAC)
  • Linking Oceanography and Multi-specific, spatially-Variable Interactions of seabirds and their prey in the Arctic (LOMVIA)
  • Understanding the links between pelagic microbial ecosystems and organic matter cycling in the changing Arctic (Micro-ARC)
  • Microbes to Megafauna Modelling of Arctic Seas (MiMeMo)
  • Primary productivity driven by escalating Arctic nutrient fluxes? (PEANUTS)
  • Pathways and emissions of climate-relevant trace gases in a changing Arctic Ocean (PETRA)

Fieldwork and Data Collection

The programme consists of seven core cruises that survey areas in the Barents Sea and the Fram Strait on board the NERC research vessel RRS James Clark Ross. Measurements will include temperature, salinity, dissolved oxygen, dissolved inorganic carbon, total alkalinity, inorganic nutrients, oxygen and carbon isotopes and underway meteorological and surface ocean observations. In addition to ship based cruise datasets gliders, moorings and animal tags are part of the fieldwork. Further data are collected from model runs.


Data Activity or Cruise Information

Data Activity

Start Date (yyyy-mm-dd) 2018-07-22
End Date (yyyy-mm-dd) 2018-07-22
Organization Undertaking ActivityUniversity of Southampton School of Ocean and Earth Science
Country of OrganizationUnited Kingdom
Originator's Data Activity IdentifierJR17007_CTD_CTD014
Platform Categorylowered unmanned submersible

BODC Sample Metadata Report for JR17007_CTD_CTD014

Sample reference number Nominal collection volume(l) Bottle rosette position Bottle firing sequence number Minimum pressure sampled (dbar) Maximum pressure sampled (dbar) Depth of sampling point (m) Bottle type Sample quality flag Bottle reference Comments
1323395   20.00 1 1  273.90  274.10  270.60 Niskin bottle No problem reported    
1323398   20.00 2 2  273.90  274.10  270.60 Niskin bottle No problem reported    
1323401   20.00 3 3  273.90  274.10  270.60 Niskin bottle No problem reported    
1323404   20.00 4 4  273.90  274.10  270.60 Niskin bottle No problem reported    
1323407   20.00 5 5  264.40  264.60  261.20 Niskin bottle No problem reported    
1323410   20.00 6 6  264.40  264.60  261.20 Niskin bottle No problem reported    
1323413   20.00 7 7  172.50  172.70  170.30 Niskin bottle No problem reported    
1323416   20.00 8 8  172.50  172.70  170.30 Niskin bottle No problem reported    
1323419   20.00 9 9  107.00  107.20  105.60 Niskin bottle No problem reported    
1323422   20.00 10 10   60.60   60.70   59.60 Niskin bottle No problem reported    
1323425   20.00 11 11   60.60   60.80   59.70 Niskin bottle No problem reported    
1323428   20.00 12 12   60.60   60.90   59.70 Niskin bottle No problem reported    
1323431   20.00 13 13   48.60   48.70   47.80 Niskin bottle No problem reported    
1323434   20.00 14 14   48.60   48.80   47.80 Niskin bottle No problem reported    
1323437   20.00 15 15   36.40   36.60   35.70 Niskin bottle No problem reported    
1323440   20.00 16 16   36.40   36.70   35.80 Niskin bottle No problem reported    
1323443   20.00 17 17   20.30   20.50   19.80 Niskin bottle No problem reported    
1323446   20.00 18 18   14.30   14.40   13.80 Niskin bottle No problem reported    
1323449   20.00 19 19   14.20   14.50   13.80 Niskin bottle No problem reported    
1323452   20.00 20 20    7.20    7.50    6.90 Niskin bottle No problem reported    
1323455   20.00 21 21     .40     .80     .50 Niskin bottle No problem reported    
1323458   20.00 22 22     .50     .80     .50 Niskin bottle No problem reported    
1323461   20.00 23 23     .50     .80     .50 Niskin bottle No problem reported    
1323464   20.00 24 24     .60     .80     .50 Niskin bottle No problem reported    

Please note:the supplied parameters may not have been sampled from all the bottle firings described in the table above. Cross-match the Sample Reference Number above against the SAMPRFNM value in the data file to identify the relevant metadata.

Related Data Activity activities are detailed in Appendix 1

Cruise

Cruise Name JR17007
Departure Date 2018-07-10
Arrival Date 2018-08-05
Principal Scientist(s)Martin Solan (University of Southampton School of Ocean and Earth Science)
Ship RRS James Clark Ross

Complete Cruise Metadata Report is available here


Fixed Station Information

Fixed Station Information

Station NameCAO-B16
CategoryOffshore location
Latitude80° 6.00' N
Longitude30° 0.00' E
Water depth below MSL287.0 m

Changing Arctic Ocean Fixed Station B16

This station is one of several sites sampled on the Barents Sea as part of the Changing Arctic Ocean programme. The station has a mean water depth 287 m at the following co-ordinates:

Latitude Longitude
80.1° N 30° E

The position of this station relative to the other Changing Arctic Ocean sites can be seen from the figure below (in red).

BODC image

Sampling History

JR16006 JR17007
CTD casts 2 1
Box cores 21 26
Multi-core 3 3
Net trawls 9
Shallow Underwater Camera System (SUCS) 3
Stand Alone Pump Systems (SAPS) 1
Zooplankton net hauls 4 1
Epibenthic Sledge (apparatus towed over the seabed to collect zoobenthos) 9

Related Fixed Station activities are detailed in Appendix 2


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: JR17007_CTD_CTD014

Related series for this Data Activity 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
2143346Water sample data2018-07-22 10:34:3080.1167 N, 30.06827 ERRS James Clark Ross JR17007
1965389Water sample data2018-07-22 10:35:0080.1167 N, 30.06827 ERRS James Clark Ross JR17007

Appendix 2: CAO-B16

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
1837756CTD or STD cast2017-07-22 08:02:0080.1521 N, 29.916 ERRS James Clark Ross JR16006
1980731Water sample data2017-07-22 08:16:0080.15129 N, 29.91463 ERRS James Clark Ross JR16006
1980915Water sample data2017-07-22 08:16:0080.15129 N, 29.91463 ERRS James Clark Ross JR16006
1981691Water sample data2017-07-22 08:16:0080.15129 N, 29.91463 ERRS James Clark Ross JR16006
2043068Water sample data2017-07-22 08:16:0080.15129 N, 29.91463 ERRS James Clark Ross JR16006
2052207Water sample data2017-07-22 08:16:0080.15129 N, 29.91463 ERRS James Clark Ross JR16006
2056245Water sample data2017-07-22 08:16:0080.15129 N, 29.91463 ERRS James Clark Ross JR16006
2056478Water sample data2017-07-22 08:16:0080.15129 N, 29.91463 ERRS James Clark Ross JR16006
1837873CTD or STD cast2017-07-28 11:19:0080.1009 N, 30.0018 ERRS James Clark Ross JR16006
2012973Water sample data2017-07-28 11:32:3080.10056 N, 30.00426 ERRS James Clark Ross JR16006
2043185Water sample data2017-07-28 11:32:3080.10056 N, 30.00426 ERRS James Clark Ross JR16006
1905466CTD or STD cast2018-06-24 11:13:0080.1001 N, 29.9988 ERRS James Clark Ross JR17006
1965863Water sample data2018-06-24 11:30:0080.10104 N, 29.99634 ERRS James Clark Ross JR17006
1980534Water sample data2018-06-24 11:30:0080.10104 N, 29.99634 ERRS James Clark Ross JR17006
2042772Water sample data2018-06-24 11:30:0080.10104 N, 29.99634 ERRS James Clark Ross JR17006
2081783Water sample data2018-06-24 11:30:0080.10104 N, 29.99634 ERRS James Clark Ross JR17006
1926679CTD or STD cast2018-07-22 10:18:2980.1167 N, 30.0683 ERRS James Clark Ross JR17007
2143346Water sample data2018-07-22 10:34:3080.1167 N, 30.06827 ERRS James Clark Ross JR17007
1965389Water sample data2018-07-22 10:35:0080.1167 N, 30.06827 ERRS James Clark Ross JR17007
2022710CTD or STD cast2019-07-16 03:51:3480.0423 N, 30.0179 ERRS James Clark Ross JR18006
2001914Water sample data2019-07-16 04:14:0080.04295 N, 30.0193 ERRS James Clark Ross JR18006
2014642Water sample data2019-07-16 04:14:2580.04295 N, 30.0193 ERRS James Clark Ross JR18006
2022722CTD or STD cast2019-07-16 06:20:3180.0366 N, 29.9698 ERRS James Clark Ross JR18006
2053063Water sample data2019-07-16 06:45:0980.03612 N, 29.97128 ERRS James Clark Ross JR18006