Computer Science
Scientific paper
Dec 1981
adsabs.harvard.edu/cgi-bin/nph-data_query?bibcode=1981icar...48..482m&link_type=abstract
Icarus, vol. 48, Dec. 1981, p. 482-487. Ministry of Education, Science, and Culture
Computer Science
6
Atmospheric Models, Haze, Infrared Radiation, Phase Shift, Radiant Flux Density, Venus Clouds, Absorptivity, Optical Thickness, Particle Size Distribution, Polarized Radiation, Scattering Coefficients, Sulfuric Acid, Venus Atmosphere, Venus, Infrared, Haze, Particles, Wavelengths, Flux, Polarization, Models, Clouds, Optical Properties, Thickness, Calculations, Procedure, Sulfuric Acid, Composition, Absorption, Opacity, Distribution, Size
Scientific paper
The computed variation of the infrared flux and polarization of Venus as a function of phase angle, based upon multiple-scattering calculations for the cloud model of Kawabata el al. (1980) with an internal heat source, precludes the possibility of sulfuric acid as the composition of the haze particles located above the main cloud. Furthermore, calculations reveal that the haze particle should have a large absorption coefficient at these wavelengths, i.e., k (imaginary part of the complex refractive index) not less than 1.3 at a wavelength of 3.4 microns. The optical thickness of the haze layer must be about 0.15 at 3.4 microns.
Mukai Sadaatsu
Mukai Tadashi
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