Applied Optics · 1996 · 207 citations · 11 references
EngineeringComputational ChemistryRayleigh ScatteringLight IntensityRadiative TransferAtmospheric ScienceNumerical SimulationComputational ElectromagneticsPhysicsMonte CarloRadiative AbsorptionRadiation TransportMie Phase FunctionsNeutron TransportRadiative Transfer ModellingApproximate Phase FunctionsAstrophysicsNatural SciencesMonte Carlo MethodLight ScatteringMie Phase Function
Monte Carlo radiative transfer simulation of light scattering in planetary atmospheres is not a simple problem, especially the study of angular distribution of light intensity. Approximate phase functions such as Henyey-Greenstein, modified Henyey-Greenstein, or Legendre polynomial decomposition are often used to simulate the Mie phase function. An alternative solution using an exact calculation alleviates these approximations.
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Diffuse radiation in the Galaxy
L. C. Henyey, Jesse L. Greenstein · The Astrophysical Journal · 1941 · 2.8K citations
Improved Mie scattering algorithms
W. J. Wiscombe · Applied Optics · 1980 · 1.6K citations
Engineering, Rayleigh Scattering, Electromagnetic Compatibility +19
The thermal structure of Titan's atmosphere
Christopher P. McKay, James B. Pollack, R. Courtin · Icarus · 1989 · 482 citations · Full text
Photochemical Modeling of Titan's Atmosphere
D. Toublanc · Icarus · 1995 · 396 citations
Atmospheric Photochemistry, Photochemistry, Atmospheric Science +2