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Metadata Report for BODC Series Reference Number 1112429


Metadata Summary

Data Description

Data Category Hydrography time series at depth
Instrument Type
NameCategories
Sea-Bird SBE 37 MicroCat SM-CT with optional pressure (submersible) CTD sensor series  water temperature sensor; salinity sensor
Instrument Mounting subsurface mooring
Originating Country United Kingdom
Originator Prof Jonathan Sharples
Originating Organization Proudman Oceanographic Laboratory (now National Oceanography Centre, Liverpool)
Processing Status banked
Online delivery of data Download available - Ocean Data View (ODV) format
Project(s) Oceans 2025
Oceans 2025 Theme 3
Oceans 2025 Theme 3 WP3.2
 

Data Identifiers

Originator's Identifier JC025_MOORED_MICROCAT_3128
BODC Series Reference 1112429
 

Time Co-ordinates(UT)

Start Time (yyyy-mm-dd hh:mm) 2008-07-05 13:00
End Time (yyyy-mm-dd hh:mm) 2008-07-25 09:28
Nominal Cycle Interval 30.0 seconds
 

Spatial Co-ordinates

Latitude 49.85400 N ( 49° 51.2' N )
Longitude 7.94900 W ( 7° 56.9' W )
Positional Uncertainty 0.01 to 0.05 n.miles
Minimum Sensor or Sampling Depth 75.0 m
Maximum Sensor or Sampling Depth 75.0 m
Minimum Sensor or Sampling Height 3.0 m
Maximum Sensor or Sampling Height 3.0 m
Sea Floor Depth 78.0 m
Sea Floor Depth Source CRREP
Sensor or Sampling Distribution Fixed common depth - All sensors are grouped effectively at the same depth which is effectively fixed for the duration of the series
Sensor or Sampling Depth Datum Approximate - Depth is only approximate
Sea Floor Depth Datum Approximate - Depth is only approximate
 

Parameters

BODC CODERankUnitsTitle
AADYAA011DaysDate (time from 00:00 01/01/1760 to 00:00 UT on day)
AAFDZZ011DaysTime (time between 00:00 UT and timestamp)
ACYCAA011DimensionlessSequence number
CNDCPR011Siemens per metreElectrical conductivity of the water body by in-situ conductivity cell
PREXPR011DecibarsPressure (measured variable) exerted by the water body by semi-fixed in-situ pressure sensor and corrected to read zero at sea level
PSALPR011DimensionlessPractical salinity of the water body by conductivity cell and computation using UNESCO 1983 algorithm
TEMPPR011Degrees CelsiusTemperature of the water body

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

Sea-Bird SBE 37-SM MicroCAT

The SBE 37-SM MicroCAT is a high accuracy conductivity and temperature recorder (pressure optional). Designed for moorings and other long-duration, fixed-site deployments, MicroCATs have non-corroding titanium housings rated for operation to 7000 metres or pressure sensor full scale-range. Communication with the MicroCAT is over an internal, 3-wire, RS-232C link. The MicroCAT's aged and pressure-protected thermistor has a long history of exceptional accuracy and stability (typical drift is less than 0.002° per year). Electrical isolation of the conductivity electronics eliminates any possibility of ground-loop noise.

Specifications

  Temperature
(°C)
Conductivity (S m-1) Optional Pressure
Measurement Range -5 to +35 0 to 7 (0 to 70 mS cm-1) 0 to full scale range: 20 / 100 / 350 / 1000 / 2000 / 3500 / 7000 metres
Initial accuracy 0.002 0.0003 0.1% of full scale range
Typical Stability 0.0002 per month 0.0003 per month 0.05% of full scale range per year
Resolution 0.0001 0.00001 0.002% of full scale range
Sensor Calibration +1 to +32 0 to 6; physical calibration over range 2.6 to 6 S m-1, plus zero conductivity (air) Ambient pressure to full scale range in 5 steps
Memory 8 Mbyte non-volatile FLASH memory
Data Storage Converted temperature and conductivity: 6 bytes per sample (3 bytes each)
Time: 4 bytes per sample
Pressure (optional): 5 bytes per sample
Real-Time Clock 32,768 Hz TCXO accurate to ±1 minutes year-1
Standard Internal Batteries Nominal 10.6 Ampere-hour pack consisting of 12 AA lithium batteries. Provides sufficient capacity for more than 630,000 samples for a typical sampling scheme
Housing Titanium pressure case rated at 7000 metres
Weight (without pressure) In water: 2.3 kg
In air: 3.8 kg

Further information can be found via the following link: SBE 37-SM MicroCAT Datasheet

Processing of JC025 MicroCAT data

Originator's processing

No data processing has been carried out by the data originator. The data are automatically calibrated from internally stored calibration coefficients when the data are downloaded from the instrument. At this point salinity was derived from temperature, conductivity and pressure using Seasoft V1.59.

BODC processing

The MicroCat data were supplied to BODC by the data originator in ASCII format. Following standard BODC procedure, the data were reformatted into BODC internal format using transfer function 482. This table shows how the variables present in the MicroCAT data were mapped to appropriate BODC parameter codes.

Originator's variable Units Description BODC parameter code Units
Temperature °C Temperature of the water body TEMPPR01 °C
Conductivity S m-1 Electrical conductivity of the water body by in-situ conductivity cell CNDCPR01 S m-1
Pressure dbar Pressure (measured variable) exerted by the water body by semi-fixed in-situ pressure sensor and corrected to read zero at sea level PREXPR01 dbar
Salinity PSU Practical salinity of the water body by conductivity cell and computation using UNESCO 1983 algorithm PSALPR01 Dimensionless

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. Data cycles recorded when the instrument was not settled at its final depth have been flagged. This mainly occurred before or during deployment or during and after recovery.

General Data Screening carried out by BODC

BODC screen both the series header qualifying information and the parameter values in the data cycles themselves.

Header information is inspected for:

  • Irregularities such as unfeasible values
  • Inconsistencies between related information, for example:
    • Times for instrument deployment and for start/end of data series
    • Length of record and the number of data cycles/cycle interval
    • Parameters expected and the parameters actually present in the data cycles
  • Originator's comments on meter/mooring performance and data quality

Documents are written by BODC highlighting irregularities which cannot be resolved.

Data cycles are inspected using time or depth series plots of all parameters. Currents are additionally inspected using vector scatter plots and time series plots of North and East velocity components. These presentations undergo intrinsic and extrinsic screening to detect infeasible values within the data cycles themselves and inconsistencies as seen when comparing characteristics of adjacent data sets displaced with respect to depth, position or time. Values suspected of being of non-oceanographic origin may be tagged with the BODC flag denoting suspect value; the data values will not be altered.

The following types of irregularity, each relying on visual detection in the plot, are amongst those which may be flagged as suspect:

  • Spurious data at the start or end of the record.
  • Obvious spikes occurring in periods free from meteorological disturbance.
  • A sequence of constant values in consecutive data cycles.

If a large percentage of the data is affected by irregularities then a Problem Report will be written rather than flagging the individual suspect values. Problem Reports are also used to highlight irregularities seen in the graphical data presentations.

Inconsistencies between the characteristics of the data set and those of its neighbours are sought and, where necessary, documented. This covers inconsistencies such as the following:

  • Maximum and minimum values of parameters (spikes excluded).
  • The occurrence of meteorological events.

This intrinsic and extrinsic screening of the parameter values seeks to confirm the qualifying information and the source laboratory's comments on the series. In screening and collating information, every care is taken to ensure that errors of BODC making are not introduced.


Project Information

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.


Oceans 2025 Theme 3: Shelf and Coastal Processes

Over the next 20 years, UK local marine environments are predicted to experience ever-increasing rates of change - including increased temperature and seawater acidity, changing freshwater run-off, changes in sea level, and a likely increase in flooding events - causing great concern for those charged with their management and protection. The future quality, health and sustainability of UK marine waters require improved appreciation of the complex interactions that occur not only within the coastal and shelf environment, but also between the environment and human actions. This knowledge must primarily be provided by whole-system operational numerical models, able to provide reliable predictions of short and long-term system responses to change.

However, such tools are only viable if scientists understand the underlying processes they are attempting to model and can interpret the resulting data. Many fundamental processes in shelf edge, shelf, coastal and estuarine systems, particularly across key interfaces in the environment, are not fully understood.

Theme 3 addresses the following broad questions:

  • How do biological, physical and chemical processes interact within shelf, coastal and estuarine systems, particularly at key environmental interfaces (e.g. coastline, sediment-water interface, thermocline, fronts and the shelf edge)?
  • What are the consequences of these interactions on the functioning of the whole coastal system, including its sensitivity and/or resilience to change?
  • Ultimately, what changes should be expected to be seen in the UK coastal environment over the next 50 years and beyond and how might these changes be transmitted into the open ocean?

Within Oceans 2025, Theme 3 will develop the necessary understanding of interacting processes to enable the consequences of environmental and anthropogenic change on UK shelf seas, coasts and estuaries to be predicted. Theme 3 will also provide knowledge that can improve the forecasting capability of models being used for the operational management of human activities in the coastal marine environment. Theme 3 is therefore directly relevant to all three of NERC's current strategic priorities; Earth's Life-Support Systems, Climate Change, and Sustainable Economies

The official Oceans 2025 documentation for this Theme is available from the following link: Oceans 2025 Theme 3

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


Oceans 2025 Theme 3, Work Package 3.2: Horizontal Patchiness in Vertical Mixing in Stratified Shelf Seas

In this Work Package, the Proudman Oceanographic Laboratory (POL) aim to address vertical mixing processes at the thermocline that are either poorly understood or have inadequate parameterisations in models. This is important because, as a boundary to vertical mixing, the thermocline affects much of the ecology and biochemistry of seasonally-stratifying shelf seas. Horizontal patchiness of vertical mixing is now known to be driven by varying seabed topography, indicating a need for a non-hydrostatic approach. This work is an expansion of the research carried out by POL during project Physical-Biological Control of New Production within the Seasonal Thermocline.

The specific objectives of Work Package 3.2 are:

  • Quantify discrepancies between the Proudman Oceanographic Laboratory Coastal Ocean Modelling System (POLCOMS) numerical model and observations of thermocline depths/strengths and diapycnal fluxes.
  • Determine the causes of these discrepancies in terms of modelled and observed responses to meteorological forcing and in terms of the potential for patchy internal mixing.
  • Quantify the importance of non-hydrostatic processes at the thermocline over typical shelf topographies.
  • Carry out ship-based process studies focusing on the patchiness of mixing through the shelf thermocline.
  • Quantify the consequences of thermocline patchiness over a whole shelf sea, alongside recommendations for process, bathymetry, and model resolution required to simulate the more important consequences.

More detailed information on this Work Package is available at pages 7 - 8 of the official Oceans 2025 Theme 3 document: Oceans 2025 Theme 3

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

Cruise Schedule

Ship Sampling Region Cruise Dates Main measurements
RRS James Cook Celtic Sea and shelf edge JC025 2008-07-02 to 2008-07-27 Turbulence profiles, biochemistry sampling, dye release studies, scanfish surveys (CTD and fluorescence), seabed grabs, core sampling, seabird and mammal observations, fisheries echosounder studies, CTD profiles, temperature-fluorometer chain tows, zooplankton net hauls, baited underwater camera studies, cetacean acoustics, mooring deployments

Moorings

Station ID Latitude Longitude Water depth(m) Mooring description Deployed on Recovered on
MS1 49° 51.21' -7° 56.94' 78 Temperature chain, surface and bottom CTD 15:45 UTC 2008-07-05 18:48 UTC 2008-07-24
MS1 49° 51.21' -7° 56.82' 78 Lander-mounted sea-bed ADCP 13:39 UTC 2008-07-05 17:50 UTC 2008-07-24
MS2 49° 53.90' -7° 52.57' 114 Temperature chain, surface and bottom CTD 02:23 UTC 2008-07-05 13:25 UTC 2008-07-23
MS2 49° 53.85' -7° 52.48' 114 Lander-mounted sea-bed ADCP 03:07 UTC 2008-07-05 15:40 UTC 2008-07-24
MS3 49° 56.40' -7° 49.00' 122 Temperature chain, surface and bottom CTD 21:47 UTC 2008-07-04 11:40 UTC 2008-07-23
MS3 49° 56.30' -7° 48.90' 122 Lander-mounted sea-bed ADCP 22:28 UTC 2008-07-04 12:24 UTC 2008-07-22
MS4 49° 44.99' -7° 40.05' 110 Sea-bed ADCP 18:29 UTC 2008-07-05 07:59 UTC 2008-07-23

Data Activity or Cruise Information

Data Activity

Start Date (yyyy-mm-dd) 2008-07-05
End Date (yyyy-mm-dd) 2008-07-24
Organization Undertaking ActivityProudman Oceanographic Laboratory (now National Oceanography Centre, Liverpool)
Country of OrganizationUnited Kingdom
Originator's Data Activity IdentifierJC025_MS1
Platform Categorymoored surface buoy

JC025 Mooring at Site MS1 from 05 to 24 July 2008

A mooring was deployed at site MS1 from RV James Cook during cruise JC025 in the Celtic Sea. The mooring consisted of an upper and lower chain which were fitted with CTD and temperature sensors and linked at depth by a subsurface buoy. The deployment was recovered using aft cranes and the deck winch.

Deployed (UTC): 2008-07-05 15:45
Water depth: 78 m
Latitude: 49.854°
Longitude: -7.949°
Acoustic release S/N: 120
Recovered (UTC): 2008-07-24 18:48

Temperature chain configuration - top wire

Depth (m) Instrument Type Serial Number Comments
0 MicroCAT SBE37-SM V 2.6b 3276, 9254 (pressure sensor) Sensor stopped with a low battery indication after 10 days
The conductivity and temperature sensors were calibrated on 2006-03-02
The pressure sensor was calibrated on 2006-03-01
1 Starmon Mini 2839 -
3 Starmon Mini 2838 -
5 Starmon Mini 2837 -
7 Starmon Mini 2836 -
9 Starmon Mini 2835 -
11 Starmon Mini 2834 -
13 Starmon Mini 2833 -
15 Starmon Mini 2840 -
17 Starmon Mini 2841 -
19 Starmon Mini 2842 -
21 Starmon Mini 2843 -
23 Starmon Mini 2844 -
25 Starmon Mini 2845 -
27 Starmon Mini 2846 -
29 Starmon Mini 2847 -
31 Starmon Mini 2848 -
33 Starmon Mini 2849 -
35 Star Oddi DST centi-TD 3661 -

Temperature chain configuration - bottom wire

Distance from sphere (height above MicroCAT (m)) Instrument Type Serial Number Comments
0 (40) Star Oddi DST centi-TD 3662 -
5 (35) Starmon Mini 2850 -
10 (30) Vemco Minilog12-T 2699 -
15 (25) Vemco Minilog12-T 2701 -
20 (20) Starmon Mini 2851 -
25 (15) Vemco Minilog12-T 9714 -
30 (10) Vemco Minilog12-T 9756 -
35 (5) Starmon Mini 2852 -
40 (0) MicroCAT SBE37-SM V 2.6b 3218, 10320 (pressure sensor) The conductivity and temperature sensors were calibrated on 2006-02-28
The pressure sensor was calibrated on 2006-02-27

More information can be found on pages 54 to 58 of the JC025 cruise report.

Related Data Activity activities are detailed in Appendix 1

Cruise

Cruise Name JC025
Departure Date 2008-07-02
Arrival Date 2008-07-27
Principal Scientist(s)Jonathan Sharples (Proudman Oceanographic Laboratory)
Ship RRS James Cook

Complete Cruise Metadata Report is available here


Fixed Station Information

Fixed Station Information

Station NameOceans 2025 WP3.2 Fixed Station MS1
CategoryOffshore location
Latitude49° 51.21' N
Longitude7° 56.87' W
Water depth below MSL78.0 m

Oceans 2025 WP3.2: Fixed Station MS1

Station MS1 is located at 49° 51.21'N, 7° 56.87'W in the Celtic Sea and has a water depth of 78 m. This station was visited as part of the fieldwork carried out for Oceans 2025 Theme 3, Work Package 3.2: Horizontal Patchiness in Vertical Mixing in Stratified Shelf Seas. Activities were carried out at site MS1 during cruiseJC025 from 05 July 2008 to 24 July 2008. The exact position is visible below.

Position of Fixed Stations sampled during JC025

BODC image

Sampling History for MS1

Date Activities Comments
2008-07-05 Deployed mooring line of Star-Oddi, Starmon and Vemco temperature loggers throughout water column with surface and bed Sea-Bird MicroCAT CTDs.
Deployed ADCP s/n 2666 attached to sea-bed lander frame.
Cetacean acoustics using C-POD porpoise detector attached to sea-bed mooring (s/n 51).
Mooring line and lander recovered on 2008-07-24.
C-POD detector s/n 51 recorded data from 18:10 UTC 2008-07-04 until 19:06 UTC 2008-07-26.
2008-07-09 CTD profiles with rosette bottle samples taken for nutrients, primary production, chlorophyll, nitrogen uptake and phytoplankton concentration.
Phytoplankton net hauls.
Zooplankton net hauls.
Benthic grab samples.
-
2008-07-10 to 2008-07-11 Baited underwater camera deployment. 76 images recorded this deployment.
2008-07-11 Benthic grab samples. -
2008-07-14 to 2008-07-15 Baited underwater camera deployment.
Cetacean acoustics using C-POD porpoise detector attached to sea-bed mooring (s/n 78).
400 images recorded this deployment.
2008-07-19 Baited underwater camera deployment.
Cetacean acoustics using C-POD porpoise detector attached to sea-bed mooring (s/n 78).
928 images recorded this deployment.
2008-07-21 CTD profiles with rosette bottle samples taken for nutrients, primary production, chlorophyll, nitrogen uptake and phytoplankton concentration.
Zooplankton net hauls.
-

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: JC025_MS1

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
1112442Surface temp/sal2008-07-05 13:00:0149.854 N, 7.949 WRRS James Cook JC025
1169867Hydrography time series at depth2008-07-05 15:45:0049.854 N, 7.949 WRRS James Cook JC025
1169879Hydrography time series at depth2008-07-05 15:45:0049.854 N, 7.949 WRRS James Cook JC025
1169880Hydrography time series at depth2008-07-05 15:45:0049.854 N, 7.949 WRRS James Cook JC025
1169892Hydrography time series at depth2008-07-05 15:45:0049.854 N, 7.949 WRRS James Cook JC025
1169911Hydrography time series at depth2008-07-05 15:45:0049.854 N, 7.949 WRRS James Cook JC025
1169923Hydrography time series at depth2008-07-05 15:45:0049.854 N, 7.949 WRRS James Cook JC025
1169935Hydrography time series at depth2008-07-05 15:45:0049.854 N, 7.949 WRRS James Cook JC025
1169947Hydrography time series at depth2008-07-05 15:45:0049.854 N, 7.949 WRRS James Cook JC025
1169959Hydrography time series at depth2008-07-05 15:45:0049.854 N, 7.949 WRRS James Cook JC025
1169960Hydrography time series at depth2008-07-05 15:45:0049.854 N, 7.949 WRRS James Cook JC025
1169972Hydrography time series at depth2008-07-05 15:45:0049.854 N, 7.949 WRRS James Cook JC025
1169984Hydrography time series at depth2008-07-05 15:45:0049.854 N, 7.949 WRRS James Cook JC025
1169996Hydrography time series at depth2008-07-05 15:45:0049.854 N, 7.949 WRRS James Cook JC025
1170008Hydrography time series at depth2008-07-05 15:45:0049.854 N, 7.949 WRRS James Cook JC025
1170021Hydrography time series at depth2008-07-05 15:45:0049.854 N, 7.949 WRRS James Cook JC025
1170033Hydrography time series at depth2008-07-05 15:45:0049.854 N, 7.949 WRRS James Cook JC025
1170045Hydrography time series at depth2008-07-05 15:45:0049.854 N, 7.949 WRRS James Cook JC025
1170057Hydrography time series at depth2008-07-05 15:45:0049.854 N, 7.949 WRRS James Cook JC025
1170069Hydrography time series at depth2008-07-05 15:45:0049.854 N, 7.949 WRRS James Cook JC025
1170070Hydrography time series at depth2008-07-05 15:45:0049.854 N, 7.949 WRRS James Cook JC025
1170082Hydrography time series at depth2008-07-05 15:45:0049.854 N, 7.949 WRRS James Cook JC025
1170113Hydrography time series at depth2008-07-05 15:45:0049.854 N, 7.949 WRRS James Cook JC025
1168932Hydrography time series at depth2008-07-05 15:46:0049.854 N, 7.949 WRRS James Cook JC025
1168944Hydrography time series at depth2008-07-05 15:46:0049.854 N, 7.949 WRRS James Cook JC025
1168956Hydrography time series at depth2008-07-05 15:46:0049.854 N, 7.949 WRRS James Cook JC025
1168968Hydrography time series at depth2008-07-05 15:46:0049.854 N, 7.949 WRRS James Cook JC025

Appendix 2: Oceans 2025 WP3.2 Fixed Station MS1

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
1112442Surface temp/sal2008-07-05 13:00:0149.854 N, 7.949 WRRS James Cook JC025
1169867Hydrography time series at depth2008-07-05 15:45:0049.854 N, 7.949 WRRS James Cook JC025
1169879Hydrography time series at depth2008-07-05 15:45:0049.854 N, 7.949 WRRS James Cook JC025
1169880Hydrography time series at depth2008-07-05 15:45:0049.854 N, 7.949 WRRS James Cook JC025
1169892Hydrography time series at depth2008-07-05 15:45:0049.854 N, 7.949 WRRS James Cook JC025
1169911Hydrography time series at depth2008-07-05 15:45:0049.854 N, 7.949 WRRS James Cook JC025
1169923Hydrography time series at depth2008-07-05 15:45:0049.854 N, 7.949 WRRS James Cook JC025
1169935Hydrography time series at depth2008-07-05 15:45:0049.854 N, 7.949 WRRS James Cook JC025
1169947Hydrography time series at depth2008-07-05 15:45:0049.854 N, 7.949 WRRS James Cook JC025
1169959Hydrography time series at depth2008-07-05 15:45:0049.854 N, 7.949 WRRS James Cook JC025
1169960Hydrography time series at depth2008-07-05 15:45:0049.854 N, 7.949 WRRS James Cook JC025
1169972Hydrography time series at depth2008-07-05 15:45:0049.854 N, 7.949 WRRS James Cook JC025
1169984Hydrography time series at depth2008-07-05 15:45:0049.854 N, 7.949 WRRS James Cook JC025
1169996Hydrography time series at depth2008-07-05 15:45:0049.854 N, 7.949 WRRS James Cook JC025
1170008Hydrography time series at depth2008-07-05 15:45:0049.854 N, 7.949 WRRS James Cook JC025
1170021Hydrography time series at depth2008-07-05 15:45:0049.854 N, 7.949 WRRS James Cook JC025
1170033Hydrography time series at depth2008-07-05 15:45:0049.854 N, 7.949 WRRS James Cook JC025
1170045Hydrography time series at depth2008-07-05 15:45:0049.854 N, 7.949 WRRS James Cook JC025
1170057Hydrography time series at depth2008-07-05 15:45:0049.854 N, 7.949 WRRS James Cook JC025
1170069Hydrography time series at depth2008-07-05 15:45:0049.854 N, 7.949 WRRS James Cook JC025
1170070Hydrography time series at depth2008-07-05 15:45:0049.854 N, 7.949 WRRS James Cook JC025
1170082Hydrography time series at depth2008-07-05 15:45:0049.854 N, 7.949 WRRS James Cook JC025
1170113Hydrography time series at depth2008-07-05 15:45:0049.854 N, 7.949 WRRS James Cook JC025
1168932Hydrography time series at depth2008-07-05 15:46:0049.854 N, 7.949 WRRS James Cook JC025
1168944Hydrography time series at depth2008-07-05 15:46:0049.854 N, 7.949 WRRS James Cook JC025
1168956Hydrography time series at depth2008-07-05 15:46:0049.854 N, 7.949 WRRS James Cook JC025
1168968Hydrography time series at depth2008-07-05 15:46:0049.854 N, 7.949 WRRS James Cook JC025
1103230CTD or STD cast2008-07-09 03:43:5149.85883 N, 7.94367 WRRS James Cook JC025
1103242CTD or STD cast2008-07-09 11:04:3449.859 N, 7.94267 WRRS James Cook JC025
1103499CTD or STD cast2008-07-21 03:35:2449.8445 N, 7.948 WRRS James Cook JC025