AndreaBozzo/ceres-open-data-index huggingface dataset:
Mean transpiration in December from the plant canopy for the present day scenario

    

Mean annual (00) and monthly (01a|12) transpiration (mm) from the plant canopy
for the period 1980-1999.Interpretation:Canopy transpiration is far more
spatially variable than potential evaporation, reflecting the effects of water
limitation in most areas of the continent. Both the annual mean and seasonal
pattern broadly resemble the corresponding patterns for rainfall. Canopy
transpiration maps have more acontrasta (relative variation) than the total
evaporation or rainfall maps because transpiration is a small component of
total evaporation in areas of low plant cover (the remainder being soil
evaporation).The partitioning between soil evaporation and canopy
transpiration in the model is determined by leaf area index.Notes: These are
model-based estimates from the BiosEquil model. Results are given for the
aBASEa (pre-1788) and aAGRICa (present day) conditions. The aAGRICa case
includes current agricultural inputs of water from
irrigation.EvapCanopy.00.Agric, EvapCanopy.01.Agric a| EvapCanopy.12.Agric a
Mean annual and monthly canopy transpiration (mm) in the aAGRICa (present day)
scenarioEvapCanopy.00.Base, EvapCanopy.01.Base a| EvapCanopy.12.Base a Mean
annual and monthly canopy transpiration (mm) in the aBASEa (pre-1788)
scenarioData is in geographics and GDA94.

See [further metadata](http://data.daff.gov.au/anrdl/metadata_files/pa_ctab_r9cl
__01411a13.xml) for more detail.



Tags: geoscientificinformation, maps, models, vegetation
Organization: Australian Bureau of Agricultural and Resource Economics and Sciences
Mean transpiration in December from the plant canopy for the pre 1788 scenario

    

Mean annual (00) and monthly (01a|12) transpiration (mm) from the plant canopy
for the period 1980-1999.Interpretation:Canopy transpiration is far more
spatially variable than potential evaporation, reflecting the effects of water
limitation in most areas of the continent. Both the annual mean and seasonal
pattern broadly resemble the corresponding patterns for rainfall. Canopy
transpiration maps have more acontrasta (relative variation) than the total
evaporation or rainfall maps because transpiration is a small component of
total evaporation in areas of low plant cover (the remainder being soil
evaporation).The partitioning between soil evaporation and canopy
transpiration in the model is determined by leaf area index.Notes: These are
model-based estimates from the BiosEquil model. Results are given for the
aBASEa (pre-1788) and aAGRICa (present day) conditions. The aAGRICa case
includes current agricultural inputs of water from
irrigation.EvapCanopy.00.Agric, EvapCanopy.01.Agric a| EvapCanopy.12.Agric a
Mean annual and monthly canopy transpiration (mm) in the aAGRICa (present day)
scenarioEvapCanopy.00.Base, EvapCanopy.01.Base a| EvapCanopy.12.Base a Mean
annual and monthly canopy transpiration (mm) in the aBASEa (pre-1788)
scenarioData is in geographics and GDA94.

See [further metadata](http://data.daff.gov.au/anrdl/metadata_files/pa_ctab_r9cl
__01411a26.xml) for more detail.



Tags: geoscientificinformation, maps, models, vegetation
Organization: Australian Bureau of Agricultural and Resource Economics and Sciences
Mean transpiration in August from the plant canopy for the present day scenario

    

Mean annual (00) and monthly (01a|12) transpiration (mm) from the plant canopy
for the period 1980-1999.Interpretation:Canopy transpiration is far more
spatially variable than potential evaporation, reflecting the effects of water
limitation in most areas of the continent. Both the annual mean and seasonal
pattern broadly resemble the corresponding patterns for rainfall. Canopy
transpiration maps have more acontrasta (relative variation) than the total
evaporation or rainfall maps because transpiration is a small component of
total evaporation in areas of low plant cover (the remainder being soil
evaporation).The partitioning between soil evaporation and canopy
transpiration in the model is determined by leaf area index.Notes: These are
model-based estimates from the BiosEquil model. Results are given for the
aBASEa (pre-1788) and aAGRICa (present day) conditions. The aAGRICa case
includes current agricultural inputs of water from
irrigation.EvapCanopy.00.Agric, EvapCanopy.01.Agric a| EvapCanopy.12.Agric a
Mean annual and monthly canopy transpiration (mm) in the aAGRICa (present day)
scenarioEvapCanopy.00.Base, EvapCanopy.01.Base a| EvapCanopy.12.Base a Mean
annual and monthly canopy transpiration (mm) in the aBASEa (pre-1788)
scenarioData is in geographics and GDA94.

See [further metadata](http://data.daff.gov.au/anrdl/metadata_files/pa_ctab_r9cl
__01411a09.xml) for more detail.



Tags: geoscientificinformation, maps, models, vegetation
Organization: Australian Bureau of Agricultural and Resource Economics and Sciences
Mean transpiration in April from the plant canopy for the pre 1788 scenario

    

Mean annual (00) and monthly (01a|12) transpiration (mm) from the plant canopy
for the period 1980-1999.Interpretation:Canopy transpiration is far more
spatially variable than potential evaporation, reflecting the effects of water
limitation in most areas of the continent. Both the annual mean and seasonal
pattern broadly resemble the corresponding patterns for rainfall. Canopy
transpiration maps have more acontrasta (relative variation) than the total
evaporation or rainfall maps because transpiration is a small component of
total evaporation in areas of low plant cover (the remainder being soil
evaporation).The partitioning between soil evaporation and canopy
transpiration in the model is determined by leaf area index.Notes: These are
model-based estimates from the BiosEquil model. Results are given for the
aBASEa (pre-1788) and aAGRICa (present day) conditions. The aAGRICa case
includes current agricultural inputs of water from
irrigation.EvapCanopy.00.Agric, EvapCanopy.01.Agric a| EvapCanopy.12.Agric a
Mean annual and monthly canopy transpiration (mm) in the aAGRICa (present day)
scenarioEvapCanopy.00.Base, EvapCanopy.01.Base a| EvapCanopy.12.Base a Mean
annual and monthly canopy transpiration (mm) in the aBASEa (pre-1788)
scenarioData is in geographics and GDA94.

See [further metadata](http://data.daff.gov.au/anrdl/metadata_files/pa_ctab_r9cl
__01411a18.xml) for more detail.



Tags: geoscientificinformation, maps, models, vegetation
Organization: Australian Bureau of Agricultural and Resource Economics and Sciences
Memory of a Nation dataset

This dataset tells fascinating stories drawn from treasures of the National Archives collection - http://naa.gov.au/visit-us/exhibitions/memory-of-a-nation/interactive.aspx

The dataset includes a digitised version of every original item that has been put on display in the Archives’ permanent exhibition Memory of a Nation, from its launch in 2007 through to the present day. This includes an original musical score of Waltzing Matilda, a petition for Aboriginal land rights from the Larrakia people of Darwin, and Charles Kingsford Smith’s 1921 application for a pilot’s licence. 

The dataset covers around 500 record items (eg. a file, object or photograph in the NAA collection).

Examples of content - http://naa.gov.au/visit-us/exhibitions/memory-of-a-nation/index.aspx

Record Item data fields include 

•	Theme
•	Subtheme
•	Title
•	Keyword tags (names, places, government activities), 
•	Short description
•	Long description
•	More info
•	Year (of record)
•	Series number (note: a series is a group of records that has resulted from the same filing process), 
•	Control symbol and barcode (record item reference numbers)
•	Collection (i.e. the government agency or person that created the series)
•	Format (for example, photograph, letter, bound volume, plan, film, etc.)
•	File name for scanned images 
•	Number of images
•	Notes
•	Digitised and Folio / page number


Organization: National Archives of Australia
Mean annual transpiration from the plant canopy for the present day scenario

    

Mean annual (00) and monthly (01a|12) transpiration (mm) from the plant canopy
for the period 1980-1999.Interpretation:Canopy transpiration is far more
spatially variable than potential evaporation, reflecting the effects of water
limitation in most areas of the continent. Both the annual mean and seasonal
pattern broadly resemble the corresponding patterns for rainfall. Canopy
transpiration maps have more acontrasta (relative variation) than the total
evaporation or rainfall maps because transpiration is a small component of
total evaporation in areas of low plant cover (the remainder being soil
evaporation).The partitioning between soil evaporation and canopy
transpiration in the model is determined by leaf area index.Notes: These are
model-based estimates from the BiosEquil model. Results are given for the
aBASEa (pre-1788) and aAGRICa (present day) conditions. The aAGRICa case
includes current agricultural inputs of water from
irrigation.EvapCanopy.00.Agric, EvapCanopy.01.Agric a| EvapCanopy.12.Agric a
Mean annual and monthly canopy transpiration (mm) in the aAGRICa (present day)
scenarioEvapCanopy.00.Base, EvapCanopy.01.Base a| EvapCanopy.12.Base a Mean
annual and monthly canopy transpiration (mm) in the aBASEa (pre-1788)
scenarioData is in geographics and GDA94.

See [further metadata](http://data.daff.gov.au/anrdl/metadata_files/pa_ctab_r9cl
__01411a01.xml) for more detail.



Tags: geoscientificinformation, maps, models, vegetation
Organization: Australian Bureau of Agricultural and Resource Economics and Sciences
Mean annual transpiration from the plant canopy for the pre 1788 scenario

    

:Mean annual (00) and monthly (01a|12) transpiration (mm) from the plant
canopy for the period 1980-1999.Interpretation:Canopy transpiration is far
more spatially variable than potential evaporation, reflecting the effects of
water limitation in most areas of the continent. Both the annual mean and
seasonal pattern broadly resemble the corresponding patterns for rainfall.
Canopy transpiration maps have more acontrasta (relative variation) than the
total evaporation or rainfall maps because transpiration is a small component
of total evaporation in areas of low plant cover (the remainder being soil
evaporation).The partitioning between soil evaporation and canopy
transpiration in the model is determined by leaf area index.Notes: These are
model-based estimates from the BiosEquil model. Results are given for the
aBASEa (pre-1788) and aAGRICa (present day) conditions. The aAGRICa case
includes current agricultural inputs of water from
irrigation.EvapCanopy.00.Agric, EvapCanopy.01.Agric a| EvapCanopy.12.Agric a
Mean annual and monthly canopy transpiration (mm) in the aAGRICa (present day)
scenarioEvapCanopy.00.Base, EvapCanopy.01.Base a| EvapCanopy.12.Base a Mean
annual and monthly canopy transpiration (mm) in the aBASEa (pre-1788)
scenarioData is in geographics and GDA94.

See [further metadata](http://data.daff.gov.au/anrdl/metadata_files/pa_ctab_r9cl
__01411a14.xml) for more detail.



Tags: geoscientificinformation, maps, models, vegetation
Organization: Australian Bureau of Agricultural and Resource Economics and Sciences
Mean annual deep drainage (mm / y) in the present day scenario

    

Definition:Mean annual deep drainage. This is the amount of water draining
below the root zone.Interpretation:Significant deep drainage is confined to
irrigation areas, and wet areas where rainfall exceeds potential evaporation
at least for some months of the year: the southeast (including Tasmania), over
the eastern ranges and in the north.Deep drainage has a broadly similar
pattern to runoff, though with added variability through the influence of soil
texture.Notes: rule-based method is used to estimate the rate of deep
drainage on the basis of soil texture, with modification to account for
cultivation and irrigation.For this quantity, results are given for the aBASEa
(pre-1788) and aAGRICa (present day) conditions.The aAGRICa case includes
current agricultural inputs of water from irrigation.FWLeach.Agric a Mean
annual deep drainage (mm y-1) in the aAGRICa (present day)
scenarioFWLeach.Base a Mean annual deep drainage (mm y-1) in the aBASEa
(pre-1788) scenarioData is in geographics and GDA94.

See [further metadata](http://data.daff.gov.au/anrdl/metadata_files/pa_ddab_r9cl
__02411a01.xml) for more detail.



Tags: geoscientificinformation, groundwater, maps models, water, waterquality
Organization: Australian Bureau of Agricultural and Resource Economics and Sciences
Mean annual concentration of mineral nitrogen in soil water (mgN / kgH20) in the pre 1788 scenario

    

Definition: Mean annual dissolved concentration of mineral nitrogen in soil
water (mg of nitrogen per kg of water), averaged for both soil layers.
Interpretation: The dissolved N concentration is calculated as the ratio of
the mineral N store to soil water store, which assumes that all the mineral N
is in solution. Rainfall has a strong influence on the pattern of both these
stores, but not on their ratio. The pattern of mineral N concentrations is
explained by the effect of air dryness (saturation deficit) on the mineral N
store (mainly controlled by NPP) which is greater than the effect of air
dryness on the soil water store (mainly determined by rainfall or energy
limitation). This gives a pattern of N concentration in soil water that
decreases as the climate-average air dryness increases from temperate to semi-
arid tropical environments. Notes: These are model-based estimates from the
BiosEquil model. Results are given for the aBasea (pre-1788) and aAgrica
(present day) conditions. The aAgrica case includes (1) current agricultural
inputs of water from irrigation; (2) current agricultural inputs of nutrients
(nitrogen and phosphorus) from fertiliser, legume crops, and legume pastures;
(3) current nutrient offtakes by product removal (harvest, stock).
NMnlConc0.Agric a Mean annual concentration of mineral nitrogen in soil water
(mgN kgH2O-1) in the aAgrica (present day) scenario NMnlConc0.Base a Mean
annual concentration of mineral nitrogen in soil water (mgN kgH2O-1) in the
aBasea (pre-1788) scenario Data is in geographics and GDA94.

See [further metadata](http://data.daff.gov.au/anrdl/metadata_files/pa_cmnswr9cl
__02811a02.xml) for more detail.



Tags: geoscientificinformation, maps, soilchemistry
Organization: Australian Bureau of Agricultural and Resource Economics and Sciences
Masig Island Weather Station Water Temperature -  From 26 Jul 2013 To 07 Oct 2017 (NERP TE Project 2.3)

This data set was collected by weather sensors deployed on the NERP Weather Station site Masig Island.

There have been 2 deployments for the Water Temperature data set.

Instrumentation was deployed for measuring Water Temperature at 1.5m  from 26 Jul 2013 through to 05 May 2014, and the installation was located at/on Masig Island Weather Station Latitude:-9.76 - Longitude:143.4. Sensor deployed was a Seabird SBE39-IM with Pressure manufactured by Sea-Bird Electronics, Inc., model 39IM. 

Instrumentation was deployed for measuring Water Temperature at 1.5m  from 02 May 2014 through to 07 Oct 2017, and the installation was located at/on Masig Island Weather Station Latitude:-9.76 - Longitude:143.4. Sensor deployed was a Seabird SBE39-IM with Pressure manufactured by Sea-Bird Electronics, Inc., model 39IM. 

Instrumentation was deployed for measuring Water Temperature at 10.0m  from 02 May 2014 through to 26 Dec 2014, and the installation was located at/on Masig Island Weather Station Latitude:-9.76 - Longitude:143.4. Sensor deployed was a Seabird SBE37-IM MicroCat CTD with Pressure manufactured by Sea-Bird Electronics, Inc., model 37IMP.

Tags: Air Temperature, Atmosphere, Atmospheric Sciences, Atmospheric Temperature, Atmospheric Water Vapor, Barometric pressure, EARTH SCIENCES, Humidity, Meteorology, Ocean Optics, Ocean Temperature, Oceans, Photosynthetically Active Radiation, Water Temperature, Wind direction, Wind speed
Organization: Australian Institute of Marine Science
Masig Island Weather Station Water Pressure -  From 02 May 2014 To 07 Oct 2017 (NERP TE Project 2.3)

This data set was collected by weather sensors deployed on the NERP Weather Station site Masig Island.

Instrumentation was deployed for measuring Water Pressure at 1.5m  from 02 May 2014 through to 07 Oct 2017, and the installation was located at/on Masig Island Weather Station Latitude:-9.76 - Longitude:143.4. Sensor deployed was a Seabird SBE39-IM with Pressure manufactured by Sea-Bird Electronics, Inc., model 39IM.

Tags: Air Temperature, Atmosphere, Atmospheric Sciences, Atmospheric Temperature, Atmospheric Water Vapor, Barometric pressure, EARTH SCIENCES, Humidity, Meteorology, Ocean Optics, Ocean Temperature, Oceans, Photosynthetically Active Radiation, Water Temperature, Wind direction, Wind speed
Organization: Australian Institute of Marine Science
Masig Island Weather Station Rain -  From 26 Jul 2013 To 07 Oct 2017 (NERP TE Project 2.3)

This data set was collected by weather sensors deployed on the NERP Weather Station site Masig Island.

There have been 2 deployments for the Rain Accumulation data set.

Instrumentation was deployed for measuring Rain Accumulation from 26 Jul 2013 through to 09 Dec 2016, and the installation was located at/on Masig Island Weather Station Latitude:-9.76 - Longitude:143.4. Sensor deployed was a Vaisala WXT520 Weather Transmitter manufactured by Vaisala, model WXT520. 

Instrumentation was deployed for measuring Rain Accumulation from 07 Dec 2016 through to 07 Oct 2017, and the installation was located at/on Masig Island Weather Station Latitude:-9.76 - Longitude:143.4. Sensor deployed was a Vaisala WXT530 Weather Transmitter manufactured by Vaisala, model WXT530. 

There have been 2 deployments for the Rain Duration data set.

Instrumentation was deployed for measuring Rain Duration from 26 Jul 2013 through to 09 Dec 2016, and the installation was located at/on Masig Island Weather Station Latitude:-9.76 - Longitude:143.4. Sensor deployed was a Vaisala WXT520 Weather Transmitter manufactured by Vaisala, model WXT520. 

Instrumentation was deployed for measuring Rain Duration from 07 Dec 2016 through to 07 Oct 2017, and the installation was located at/on Masig Island Weather Station Latitude:-9.76 - Longitude:143.4. Sensor deployed was a Vaisala WXT530 Weather Transmitter manufactured by Vaisala, model WXT530. 

There have been 2 deployments for the Rain Intensity data set.

Instrumentation was deployed for measuring Rain Intensity from 26 Jul 2013 through to 09 Dec 2016, and the installation was located at/on Masig Island Weather Station Latitude:-9.76 - Longitude:143.4. Sensor deployed was a Vaisala WXT520 Weather Transmitter manufactured by Vaisala, model WXT520. 

Instrumentation was deployed for measuring Rain Intensity from 07 Dec 2016 through to 07 Oct 2017, and the installation was located at/on Masig Island Weather Station Latitude:-9.76 - Longitude:143.4. Sensor deployed was a Vaisala WXT530 Weather Transmitter manufactured by Vaisala, model WXT530.

Tags: Air Temperature, Atmosphere, Atmospheric Sciences, Atmospheric Temperature, Atmospheric Water Vapor, Barometric pressure, EARTH SCIENCES, Humidity, Meteorology, Ocean Optics, Ocean Temperature, Oceans, Photosynthetically Active Radiation, Water Temperature, Wind direction, Wind speed
Organization: Australian Institute of Marine Science
Masig Island Weather Station Light -  From 26 Jul 2013 To 07 Oct 2017 (NERP TE Project 2.3)

This data set was collected by weather sensors deployed on the NERP Weather Station site Masig Island.

Instrumentation was deployed for measuring PAR from 26 Jul 2013 through to 07 Oct 2017, and the installation was located at/on Masig Island Weather Station Latitude:-9.76 - Longitude:143.4. Sensor deployed was a Licor LI-192SA Quantum Sensor (PAR Sensor) manufactured by LI-COR Inc., model LI-192SA.

Tags: Air Temperature, Atmosphere, Atmospheric Sciences, Atmospheric Temperature, Atmospheric Water Vapor, Barometric pressure, EARTH SCIENCES, Humidity, Meteorology, Ocean Optics, Ocean Temperature, Oceans, Photosynthetically Active Radiation, Water Temperature, Wind direction, Wind speed
Organization: Australian Institute of Marine Science
Masig Island Weather Station Humidity -  From 26 Jul 2013 To 07 Oct 2017 (NERP TE Project 2.3)

This data set was collected by weather sensors deployed on the NERP Weather Station site Masig Island.

There have been 2 deployments for the Humidity data set.

Instrumentation was deployed for measuring Humidity from 26 Jul 2013 through to 09 Dec 2016, and the installation was located at/on Masig Island Weather Station Latitude:-9.76 - Longitude:143.4. Sensor deployed was a Vaisala WXT520 Weather Transmitter manufactured by Vaisala, model WXT520. 

Instrumentation was deployed for measuring Humidity from 07 Dec 2016 through to 07 Oct 2017, and the installation was located at/on Masig Island Weather Station Latitude:-9.76 - Longitude:143.4. Sensor deployed was a Vaisala WXT530 Weather Transmitter manufactured by Vaisala, model WXT530.

Tags: Air Temperature, Atmosphere, Atmospheric Sciences, Atmospheric Temperature, Atmospheric Water Vapor, Barometric pressure, EARTH SCIENCES, Humidity, Meteorology, Ocean Optics, Ocean Temperature, Oceans, Photosynthetically Active Radiation, Water Temperature, Wind direction, Wind speed
Organization: Australian Institute of Marine Science
Masig Island Weather Station Air Temperature -  From 26 Jul 2013 To 07 Oct 2017 (NERP TE Project 2.3)

This data set was collected by weather sensors deployed on the NERP Weather Station site Masig Island.

There have been 2 deployments for the Air Temperature data set.

Instrumentation was deployed for measuring Air Temperature from 26 Jul 2013 through to 09 Dec 2016, and the installation was located at/on Masig Island Weather Station Latitude:-9.76 - Longitude:143.4. Sensor deployed was a Vaisala WXT520 Weather Transmitter manufactured by Vaisala, model WXT520. 

Instrumentation was deployed for measuring Air Temperature from 07 Dec 2016 through to 07 Oct 2017, and the installation was located at/on Masig Island Weather Station Latitude:-9.76 - Longitude:143.4. Sensor deployed was a Vaisala WXT530 Weather Transmitter manufactured by Vaisala, model WXT530.

Tags: Air Temperature, Atmosphere, Atmospheric Sciences, Atmospheric Temperature, Atmospheric Water Vapor, Barometric pressure, EARTH SCIENCES, Humidity, Meteorology, Ocean Optics, Ocean Temperature, Oceans, Photosynthetically Active Radiation, Water Temperature, Wind direction, Wind speed
Organization: Australian Institute of Marine Science
Masig Island Weather Station Air Pressure -  From 26 Jul 2013 To 07 Oct 2017 (NERP TE Project 2.3)

This data set was collected by weather sensors deployed on the NERP Weather Station site Masig Island.

There have been 2 deployments for the Air Pressure data set.

Instrumentation was deployed for measuring Air Pressure from 26 Jul 2013 through to 09 Dec 2016, and the installation was located at/on Masig Island Weather Station Latitude:-9.76 - Longitude:143.4. Sensor deployed was a Vaisala WXT520 Weather Transmitter manufactured by Vaisala, model WXT520. 

Instrumentation was deployed for measuring Air Pressure from 07 Dec 2016 through to 07 Oct 2017, and the installation was located at/on Masig Island Weather Station Latitude:-9.76 - Longitude:143.4. Sensor deployed was a Vaisala WXT530 Weather Transmitter manufactured by Vaisala, model WXT530.

Tags: Air Temperature, Atmosphere, Atmospheric Sciences, Atmospheric Temperature, Atmospheric Water Vapor, Barometric pressure, EARTH SCIENCES, Humidity, Meteorology, Ocean Optics, Ocean Temperature, Oceans, Photosynthetically Active Radiation, Water Temperature, Wind direction, Wind speed
Organization: Australian Institute of Marine Science