Observations collected between 18th October 2018 and 29th March 2019 aboard Aurora Australis by AIRBOX and associated instruments

More information about these data is available in the word document in the download file. It is recommended that potential users of these data read this document before proceeding. MAX-DOAS This dataset comprises chiefly of solar scattered light spectra (level zero product) collected using a MAX-DOA...

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Bibliographic Details
Other Authors: SCHOFIELD, ROBYN (hasPrincipalInvestigator), SCHOFIELD, ROBYN (processor), RYAN, ROBERT GEORGE (processor), Australian Antarctic Data Centre (publisher)
Format: Dataset
Language:unknown
Published: Australian Antarctic Data Centre
Subjects:
Online Access:https://researchdata.edu.au/observations-collected-18th-associated-instruments/1447496
https://doi.org/10.26179/5e546f452145d
https://data.aad.gov.au/metadata/records/AAS_4431_CAMMPCAN_AIRBOX_2018-2019
http://nla.gov.au/nla.party-617536
id ftands:oai:ands.org.au::1447496
record_format openpolar
institution Open Polar
collection Research Data Australia (Australian National Data Service - ANDS)
op_collection_id ftands
language unknown
topic climatologyMeteorologyAtmosphere
AEROSOLS
EARTH SCIENCE
ATMOSPHERE
EARTH SCIENCE &gt
ATMOSPHERE &gt
AEROSOLS &gt
CHEMICAL COMPOSITION
AEROSOL PARTICLE PROPERTIES
TRACE GASES/TRACE SPECIES
ATMOSPHERIC CHEMISTRY
PARTICULATE MATTER
ATMOSPHERIC CHEMISTRY &gt
OXYGEN COMPOUNDS &gt
ATMOSPHERIC OZONE
VISIBLE IMAGERY
SPECTRAL/ENGINEERING
VISIBLE WAVELENGTHS
AIR TEMPERATURE
ATMOSPHERIC TEMPERATURE
SURFACE TEMPERATURE
ATMOSPHERIC WATER VAPOR &gt
WATER VAPOR INDICATORS &gt
HUMIDITY &gt
RELATIVE HUMIDITY
ABSOLUTE HUMIDITY
SEA LEVEL PRESSURE
ATMOSPHERIC PRESSURE
ATMOSPHERIC WINDS &gt
SURFACE WINDS &gt
WIND SPEED
WIND DIRECTION
PRECIPITATION AMOUNT
PRECIPITATION
INCOMING SOLAR RADIATION
ATMOSPHERIC RADIATION
ORGANIC PARTICLES
CARBONACEOUS AEROSOLS
CLOUD CONDENSATION NUCLEI
AEROSOL BACKSCATTER
CAMMPCAN
AIRBOX
AIR-ION &gt
AIR-ION SPECTROMETER
MERCURY ANALYZERS
HVAS &gt
High Volume Air Sampler
OZONE DETECTORS
CAMERAS
AWS &gt
Automated Weather System
IRGA &gt
Infrared Gas Analyzers
SPECTROMETERS
SMPS &gt
Scanning Mobility Particle Sizer
CIN &gt
Cloud Integrating Nephelometer
PHOTOMETERS
CPC &gt
Cloud Particle Counter
CNC &gt
Condensation Nuclei Counter
MPL &gt
Micropulse Lidar
R/V AA &gt
R/V Aurora Australis
OCEAN &gt
SOUTHERN OCEAN
GEOGRAPHIC REGION &gt
POLAR
CONTINENT &gt
ANTARCTICA
spellingShingle climatologyMeteorologyAtmosphere
AEROSOLS
EARTH SCIENCE
ATMOSPHERE
EARTH SCIENCE &gt
ATMOSPHERE &gt
AEROSOLS &gt
CHEMICAL COMPOSITION
AEROSOL PARTICLE PROPERTIES
TRACE GASES/TRACE SPECIES
ATMOSPHERIC CHEMISTRY
PARTICULATE MATTER
ATMOSPHERIC CHEMISTRY &gt
OXYGEN COMPOUNDS &gt
ATMOSPHERIC OZONE
VISIBLE IMAGERY
SPECTRAL/ENGINEERING
VISIBLE WAVELENGTHS
AIR TEMPERATURE
ATMOSPHERIC TEMPERATURE
SURFACE TEMPERATURE
ATMOSPHERIC WATER VAPOR &gt
WATER VAPOR INDICATORS &gt
HUMIDITY &gt
RELATIVE HUMIDITY
ABSOLUTE HUMIDITY
SEA LEVEL PRESSURE
ATMOSPHERIC PRESSURE
ATMOSPHERIC WINDS &gt
SURFACE WINDS &gt
WIND SPEED
WIND DIRECTION
PRECIPITATION AMOUNT
PRECIPITATION
INCOMING SOLAR RADIATION
ATMOSPHERIC RADIATION
ORGANIC PARTICLES
CARBONACEOUS AEROSOLS
CLOUD CONDENSATION NUCLEI
AEROSOL BACKSCATTER
CAMMPCAN
AIRBOX
AIR-ION &gt
AIR-ION SPECTROMETER
MERCURY ANALYZERS
HVAS &gt
High Volume Air Sampler
OZONE DETECTORS
CAMERAS
AWS &gt
Automated Weather System
IRGA &gt
Infrared Gas Analyzers
SPECTROMETERS
SMPS &gt
Scanning Mobility Particle Sizer
CIN &gt
Cloud Integrating Nephelometer
PHOTOMETERS
CPC &gt
Cloud Particle Counter
CNC &gt
Condensation Nuclei Counter
MPL &gt
Micropulse Lidar
R/V AA &gt
R/V Aurora Australis
OCEAN &gt
SOUTHERN OCEAN
GEOGRAPHIC REGION &gt
POLAR
CONTINENT &gt
ANTARCTICA
Observations collected between 18th October 2018 and 29th March 2019 aboard Aurora Australis by AIRBOX and associated instruments
topic_facet climatologyMeteorologyAtmosphere
AEROSOLS
EARTH SCIENCE
ATMOSPHERE
EARTH SCIENCE &gt
ATMOSPHERE &gt
AEROSOLS &gt
CHEMICAL COMPOSITION
AEROSOL PARTICLE PROPERTIES
TRACE GASES/TRACE SPECIES
ATMOSPHERIC CHEMISTRY
PARTICULATE MATTER
ATMOSPHERIC CHEMISTRY &gt
OXYGEN COMPOUNDS &gt
ATMOSPHERIC OZONE
VISIBLE IMAGERY
SPECTRAL/ENGINEERING
VISIBLE WAVELENGTHS
AIR TEMPERATURE
ATMOSPHERIC TEMPERATURE
SURFACE TEMPERATURE
ATMOSPHERIC WATER VAPOR &gt
WATER VAPOR INDICATORS &gt
HUMIDITY &gt
RELATIVE HUMIDITY
ABSOLUTE HUMIDITY
SEA LEVEL PRESSURE
ATMOSPHERIC PRESSURE
ATMOSPHERIC WINDS &gt
SURFACE WINDS &gt
WIND SPEED
WIND DIRECTION
PRECIPITATION AMOUNT
PRECIPITATION
INCOMING SOLAR RADIATION
ATMOSPHERIC RADIATION
ORGANIC PARTICLES
CARBONACEOUS AEROSOLS
CLOUD CONDENSATION NUCLEI
AEROSOL BACKSCATTER
CAMMPCAN
AIRBOX
AIR-ION &gt
AIR-ION SPECTROMETER
MERCURY ANALYZERS
HVAS &gt
High Volume Air Sampler
OZONE DETECTORS
CAMERAS
AWS &gt
Automated Weather System
IRGA &gt
Infrared Gas Analyzers
SPECTROMETERS
SMPS &gt
Scanning Mobility Particle Sizer
CIN &gt
Cloud Integrating Nephelometer
PHOTOMETERS
CPC &gt
Cloud Particle Counter
CNC &gt
Condensation Nuclei Counter
MPL &gt
Micropulse Lidar
R/V AA &gt
R/V Aurora Australis
OCEAN &gt
SOUTHERN OCEAN
GEOGRAPHIC REGION &gt
POLAR
CONTINENT &gt
ANTARCTICA
description More information about these data is available in the word document in the download file. It is recommended that potential users of these data read this document before proceeding. MAX-DOAS This dataset comprises chiefly of solar scattered light spectra (level zero product) collected using a MAX-DOAS instrument. The MAX (Mult-Axis) refers to the fact that spectra are collected in a ‘set’ of elevation angle scans (-3, -2, -1, 0, 1, 2, 3, 5, 10, 20, 40, 90 deg). The DOAS (differential optical absorption spectroscopy) refers to the analysis method required for analysis of the scattered light spectra. Briefly, analysis of these spectra relies on fitting absorption cross sections of trace gases of interest to determine the amount of trace gas integrated along the scattered light path, for each elevation angle in each set, using an appropriate fitting algorithm. This gives the slant column density for each trace gas at each elevation angle (level one product). The differential slant column density (dSCD) is determined by taking the ratio of low elevation angle scans with zenith scans, producing tropospheric specific information. Typically some atmospheric corrections are required to be included in the analysis including a polynomial, which accounts for broadband absorption and scattering processes, and corrections for the filling in of solar Fraunhofer lines (the Ring effect). By inverting measured dSCDs, and dSCDS modelled using a radiative transfer model, vertical profile information for trace gases can be calculated using MAX-DOAS observations. Finally, since knowing the elevation angle precisely is crucial to retrieval of vertical profile information from MAX-DOAS measurements, this dataset also includes Euler angles measured using a co-located accelerometer which may, if necessary, be used to correct MAX-DOAS elevation angles for the pitch and roll of the ship in the Southern Ocean. MAX-DOAS instrument specifications: Two ultra-low straylight 75mm Avantes spectrometers: UV: 295 – 450nm, 100 μm m slit (from fibre), 0.6nm resolution, Hamamatsu backthinned detector optimized for UV, Schott BG3 filter. Visible: 430 – 565nm, 100 μ m slit (from fibre), 0.6nm resolution, Sony 2048L detector Typical instrumental stray light less than 0.05% , RMS of 1 · 10−4 (vis) and 2 · 10−4 (uv) for 1000 scans around noon. Spectrometers temperature stabilized at a fixed temperature (20 C) with a deviation of less than 0.05 C Elevation angle accuracy less than 0.1 Telescope field of view (opening angle) less than 0.3 Other instruments/datasets detailed in the file: Gaseous oxidised mercury measurements Gaseous elemental mercury Radon measurements HiVolume sampler Ozone monitor Sea state cameras Lufft weather station Spectronus greenhouse gas analyser NAIS ToF-ACSM SMPS Nephelometer MAAP Black carbon analyser CPC TSI 3776 CPC TSI 3772 CCNC mini-MPL (micropulse lidar) Microtops Further information is available in the word document in the download file.
author2 SCHOFIELD, ROBYN (hasPrincipalInvestigator)
SCHOFIELD, ROBYN (processor)
RYAN, ROBERT GEORGE (processor)
Australian Antarctic Data Centre (publisher)
format Dataset
title Observations collected between 18th October 2018 and 29th March 2019 aboard Aurora Australis by AIRBOX and associated instruments
title_short Observations collected between 18th October 2018 and 29th March 2019 aboard Aurora Australis by AIRBOX and associated instruments
title_full Observations collected between 18th October 2018 and 29th March 2019 aboard Aurora Australis by AIRBOX and associated instruments
title_fullStr Observations collected between 18th October 2018 and 29th March 2019 aboard Aurora Australis by AIRBOX and associated instruments
title_full_unstemmed Observations collected between 18th October 2018 and 29th March 2019 aboard Aurora Australis by AIRBOX and associated instruments
title_sort observations collected between 18th october 2018 and 29th march 2019 aboard aurora australis by airbox and associated instruments
publisher Australian Antarctic Data Centre
url https://researchdata.edu.au/observations-collected-18th-associated-instruments/1447496
https://doi.org/10.26179/5e546f452145d
https://data.aad.gov.au/metadata/records/AAS_4431_CAMMPCAN_AIRBOX_2018-2019
http://nla.gov.au/nla.party-617536
op_coverage Spatial: northlimit=-42.882; southlimit=-68.576; westlimit=62.867; eastLimit=158.856; projection=WGS84
Temporal: From 2017-10-18 to 2018-03-29
long_lat ENVELOPE(-60.855,-60.855,-72.167,-72.167)
ENVELOPE(62.867,158.856,-42.882,-68.576)
geographic Schott
Southern Ocean
geographic_facet Schott
Southern Ocean
genre Antarc*
Antarctica
aurora australis
Southern Ocean
genre_facet Antarc*
Antarctica
aurora australis
Southern Ocean
op_source Australian Antarctic Data Centre
op_relation https://researchdata.edu.au/observations-collected-18th-associated-instruments/1447496
481f2ed8-8fc2-4800-bbe6-a2cb92defd38
doi:10.26179/5e546f452145d
AAS_4431_CAMMPCAN_AIRBOX_2018-2019
https://data.aad.gov.au/metadata/records/AAS_4431_CAMMPCAN_AIRBOX_2018-2019
http://nla.gov.au/nla.party-617536
op_doi https://doi.org/10.26179/5e546f452145d
_version_ 1766146988116541440
spelling ftands:oai:ands.org.au::1447496 2023-05-15T13:41:12+02:00 Observations collected between 18th October 2018 and 29th March 2019 aboard Aurora Australis by AIRBOX and associated instruments SCHOFIELD, ROBYN (hasPrincipalInvestigator) SCHOFIELD, ROBYN (processor) RYAN, ROBERT GEORGE (processor) Australian Antarctic Data Centre (publisher) Spatial: northlimit=-42.882; southlimit=-68.576; westlimit=62.867; eastLimit=158.856; projection=WGS84 Temporal: From 2017-10-18 to 2018-03-29 https://researchdata.edu.au/observations-collected-18th-associated-instruments/1447496 https://doi.org/10.26179/5e546f452145d https://data.aad.gov.au/metadata/records/AAS_4431_CAMMPCAN_AIRBOX_2018-2019 http://nla.gov.au/nla.party-617536 unknown Australian Antarctic Data Centre https://researchdata.edu.au/observations-collected-18th-associated-instruments/1447496 481f2ed8-8fc2-4800-bbe6-a2cb92defd38 doi:10.26179/5e546f452145d AAS_4431_CAMMPCAN_AIRBOX_2018-2019 https://data.aad.gov.au/metadata/records/AAS_4431_CAMMPCAN_AIRBOX_2018-2019 http://nla.gov.au/nla.party-617536 Australian Antarctic Data Centre climatologyMeteorologyAtmosphere AEROSOLS EARTH SCIENCE ATMOSPHERE EARTH SCIENCE &gt ATMOSPHERE &gt AEROSOLS &gt CHEMICAL COMPOSITION AEROSOL PARTICLE PROPERTIES TRACE GASES/TRACE SPECIES ATMOSPHERIC CHEMISTRY PARTICULATE MATTER ATMOSPHERIC CHEMISTRY &gt OXYGEN COMPOUNDS &gt ATMOSPHERIC OZONE VISIBLE IMAGERY SPECTRAL/ENGINEERING VISIBLE WAVELENGTHS AIR TEMPERATURE ATMOSPHERIC TEMPERATURE SURFACE TEMPERATURE ATMOSPHERIC WATER VAPOR &gt WATER VAPOR INDICATORS &gt HUMIDITY &gt RELATIVE HUMIDITY ABSOLUTE HUMIDITY SEA LEVEL PRESSURE ATMOSPHERIC PRESSURE ATMOSPHERIC WINDS &gt SURFACE WINDS &gt WIND SPEED WIND DIRECTION PRECIPITATION AMOUNT PRECIPITATION INCOMING SOLAR RADIATION ATMOSPHERIC RADIATION ORGANIC PARTICLES CARBONACEOUS AEROSOLS CLOUD CONDENSATION NUCLEI AEROSOL BACKSCATTER CAMMPCAN AIRBOX AIR-ION &gt AIR-ION SPECTROMETER MERCURY ANALYZERS HVAS &gt High Volume Air Sampler OZONE DETECTORS CAMERAS AWS &gt Automated Weather System IRGA &gt Infrared Gas Analyzers SPECTROMETERS SMPS &gt Scanning Mobility Particle Sizer CIN &gt Cloud Integrating Nephelometer PHOTOMETERS CPC &gt Cloud Particle Counter CNC &gt Condensation Nuclei Counter MPL &gt Micropulse Lidar R/V AA &gt R/V Aurora Australis OCEAN &gt SOUTHERN OCEAN GEOGRAPHIC REGION &gt POLAR CONTINENT &gt ANTARCTICA dataset ftands https://doi.org/10.26179/5e546f452145d 2021-12-06T23:24:26Z More information about these data is available in the word document in the download file. It is recommended that potential users of these data read this document before proceeding. MAX-DOAS This dataset comprises chiefly of solar scattered light spectra (level zero product) collected using a MAX-DOAS instrument. The MAX (Mult-Axis) refers to the fact that spectra are collected in a ‘set’ of elevation angle scans (-3, -2, -1, 0, 1, 2, 3, 5, 10, 20, 40, 90 deg). The DOAS (differential optical absorption spectroscopy) refers to the analysis method required for analysis of the scattered light spectra. Briefly, analysis of these spectra relies on fitting absorption cross sections of trace gases of interest to determine the amount of trace gas integrated along the scattered light path, for each elevation angle in each set, using an appropriate fitting algorithm. This gives the slant column density for each trace gas at each elevation angle (level one product). The differential slant column density (dSCD) is determined by taking the ratio of low elevation angle scans with zenith scans, producing tropospheric specific information. Typically some atmospheric corrections are required to be included in the analysis including a polynomial, which accounts for broadband absorption and scattering processes, and corrections for the filling in of solar Fraunhofer lines (the Ring effect). By inverting measured dSCDs, and dSCDS modelled using a radiative transfer model, vertical profile information for trace gases can be calculated using MAX-DOAS observations. Finally, since knowing the elevation angle precisely is crucial to retrieval of vertical profile information from MAX-DOAS measurements, this dataset also includes Euler angles measured using a co-located accelerometer which may, if necessary, be used to correct MAX-DOAS elevation angles for the pitch and roll of the ship in the Southern Ocean. MAX-DOAS instrument specifications: Two ultra-low straylight 75mm Avantes spectrometers: UV: 295 – 450nm, 100 μm m slit (from fibre), 0.6nm resolution, Hamamatsu backthinned detector optimized for UV, Schott BG3 filter. Visible: 430 – 565nm, 100 μ m slit (from fibre), 0.6nm resolution, Sony 2048L detector Typical instrumental stray light less than 0.05% , RMS of 1 · 10−4 (vis) and 2 · 10−4 (uv) for 1000 scans around noon. Spectrometers temperature stabilized at a fixed temperature (20 C) with a deviation of less than 0.05 C Elevation angle accuracy less than 0.1 Telescope field of view (opening angle) less than 0.3 Other instruments/datasets detailed in the file: Gaseous oxidised mercury measurements Gaseous elemental mercury Radon measurements HiVolume sampler Ozone monitor Sea state cameras Lufft weather station Spectronus greenhouse gas analyser NAIS ToF-ACSM SMPS Nephelometer MAAP Black carbon analyser CPC TSI 3776 CPC TSI 3772 CCNC mini-MPL (micropulse lidar) Microtops Further information is available in the word document in the download file. Dataset Antarc* Antarctica aurora australis Southern Ocean Research Data Australia (Australian National Data Service - ANDS) Schott ENVELOPE(-60.855,-60.855,-72.167,-72.167) Southern Ocean ENVELOPE(62.867,158.856,-42.882,-68.576)