Calculating Rayleigh scattering from particulate surfaces and Saturn's rings

Physics – Optics

Scientific paper

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Particle Size Distribution, Planetary Surfaces, Rayleigh Scattering, Saturn Rings, Computerized Simulation, Light Scattering, Polarized Light, Surface Roughness

Scientific paper

Scattering of light by a rough particulate surface like an asteroid causes a unique signature in the photopolarmetric measurements of the scattered light and yields useful information about the structure and optical properties of the surface. Calculations of scattered light from particles larger than a wavelength of light have been successfully done, using Fresnel's equation and the laws of geometrical optics. These calculations are extended to include Rayleigh and other small particle scattering processes. Small amounts of Rayleigh scattering mixed with Fresnel scattering cause significant changes in single and double events at the inversion angle of polarization plots and affect their negative branches. The results of these calculations should be useful for remote measurements of the soils of asteroids and the outer planets.

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