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. 2023 Nov 15;11:1270033. doi: 10.3389/fpubh.2023.1270033

Table 3.

Satellite sensors for aerosol inversion (66–75).

Sensor Satellite Producing countries Usage duration Spatial resolution(km) Attribute Main application
AVHRR NOAA-7, −9, −11, −14, −L, Metop-1 USA 1978–1994 1.1(local mode); 4.4(globe) Long-term datasets AOD
TOMS Nimbus-7, Meteor-3, ADEOS, Earth Probe, QuikTOMS USA 1978–1993;1991–1994 50 Long-term datasets; Sensitivity to absorbing aerosols on land and at sea O3, SO2
POLDER ADEOS, ADEOS II France、Japan 1992–2002 7×6 Polarization is more sensitive to the refractive index of aerosols; Observation of Earth targets from 12 directions; Cloud screening using A-band, reflectivity threshold and spatial coherence Aerosol properties measured by polarization
MISR Terra USA 2002 to present 17.6 × 17.6; 4.4 × 4.4 Flight calibration using high quantum efficiency diodes; Global coverage for 9 days Aerosol
MODIS Terra, EOS PM, Aqua USA 1999 to present 0.25–1 High calibration accuracy; Large number of airborne band calibrators; Wide spectral range; Ability to detect clouds, shadows and heavy aerosols H2O; cloud layers; Aerosol
OMI EOS CHEM Aura Finland, Netherlands Co-operation 2004 to present 13(local mode); 13 × 24(globe) High calibration accuracy; Large number of on-board calibrators O3; SO2; NO2; Aerosol; CHOCHO
AATSR/SLSTR Envisat/Sentinel-3 European Space Agency(ESA) 2002–2012; 2016 to present 1 Dual-viewing angle (front view is 55°) Observation capability at different wavelengths; Can be used for atmospheric characterization and sea surface temperature Aerosol; Land; Surface