A Second-Generation Blackbody System for the Calibration and Verification of Seagoing Infrared Radiometers

Quasi-operational shipborne radiometers provide a fiducial reference measurement (FRM) for satellite validation of satellite sea surface skin temperature (SSTskin) retrievals. External reference blackbodies are required to verify the performance and to quantify the accuracy of the radiometer calibra...

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Veröffentlicht in:Journal of atmospheric and oceanic technology 2014-05, Vol.31 (5), p.1104-1127
Hauptverfasser: Donlon, Craig J, Wimmer, W, Robinson, I, Fisher, G, Ferlet, M, Nightingale, T, Bras, B
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container_end_page 1127
container_issue 5
container_start_page 1104
container_title Journal of atmospheric and oceanic technology
container_volume 31
creator Donlon, Craig J
Wimmer, W
Robinson, I
Fisher, G
Ferlet, M
Nightingale, T
Bras, B
description Quasi-operational shipborne radiometers provide a fiducial reference measurement (FRM) for satellite validation of satellite sea surface skin temperature (SSTskin) retrievals. External reference blackbodies are required to verify the performance and to quantify the accuracy of the radiometer calibration system. They provide a link in an unbroken chain of comparisons between the shipborne radiometer and a traceable reference standard. A second-generation water bath blackbody reference radiance source has been developed for this purpose. The second generation Concerted Action for the Study of the Ocean Thermal Skin (CASOTS-II) blackbody has a 110-mm-diameter aperture cylinder-cone geometry coated with NEXTEL suede 3103 paint. Interchangeable aperture stops reduce the cavity aperture diameter and minimize stray radiation. Monte Carlo modeling techniques show the effective emissivity of the cavity to be >0.9999 (aperture < 30 mm). The cavity is immersed in a water bath that is vigorously stirred using a pump that slowly heats the water bath at a mean rate of 0.6 K h1. The temperature of the water bath is measured using a thermometer traceable to the International System of Units (SI) standards. The worst-case radiance temperature of the CASOTS-II blackbody system is traceable to the SI with an uncertainty of 58 mK (millikelvin). When operating under typical laboratory conditions using an aperture of 40 mm, the uncertainty is 16 mK. An intercomparison with the U.K. National Physical Laboratory Absolute Measurements of Blackbody Emitted Radiance (AMBER) reference radiometer found no significant differences within 75 mK (110-mm aperture) or 50 mK (40-mm aperture), which is the combined uncertainty of the comparison and the reference standard for SI traceability of ISAR radiometer SSTskin records used for satellite SST validation. Applications of the CASOTS-II blackbody to monitor the calibration of shipborne radiometers are described and measurement protocols are proposed.
doi_str_mv 10.1175/JTECH-D-13-00151.1
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Applications of the CASOTS-II blackbody to monitor the calibration of shipborne radiometers are described and measurement protocols are proposed.</abstract><cop>Boston</cop><pub>American Meteorological Society</pub><doi>10.1175/JTECH-D-13-00151.1</doi><tpages>24</tpages><oa>free_for_read</oa></addata></record>
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source American Meteorological Society; Elektronische Zeitschriftenbibliothek - Frei zugängliche E-Journals; Alma/SFX Local Collection
subjects Apertures
Blackbody
Calibration
Climate change
Cylinders
Datasets
Diameters
Emissivity
Estimates
Infrared radiometers
Intercomparison
International System of Units
Laboratories
Marine
Measurement
Microwave imagery
Radiance
Radiation
Radiometers
Resistance thermometers
Satellites
Sea surface
Sea surface temperature
Skin
Skin temperature
Statistical methods
Studies
Temperature
Temperature requirements
Thermometers
Uncertainty
Water baths
title A Second-Generation Blackbody System for the Calibration and Verification of Seagoing Infrared Radiometers
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