Matrix Operator Theory of Radiative Transfer 2: Scattering from Maritime Haze
- 1 May 1973
- journal article
- Published by Optica Publishing Group in Applied Optics
- Vol. 12 (5) , 1071-1084
- https://doi.org/10.1364/ao.12.001071
Abstract
Matrix operator theory is used to calculate the reflected and transmitted radiance of photons that have interacted with plane-parallel maritime haze layers. The results are presented for three solar zenith angles, three values of the surface albedo, and a range of optical thicknesses from very thin to very thick. The diffuse flux at the lower boundary and the cloud albedo are tabulated. The forward peak and other features in the single scattered phase function cause the radiance in many cases to be very different from that for Rayleigh scattering. In particular the variation of the radiance with both the zenith or nadir angle and the azimuthal angle is more marked and the relative limb darkening under very thick layers is greater for haze M than for Rayleigh scattering. The downward diffuse flux at the lower boundary for A = 0 is always greater and the cloud albedo is always less for haze M than for Rayleigh layers.Keywords
This publication has 8 references indexed in Scilit:
- Matrix Operator Theory of Radiative Transfer 1: Rayleigh ScatteringApplied Optics, 1973
- A Modified Fourier Transform Method for Multiple Scattering Calculations in a Plane Parallel Mie AtmosphereApplied Optics, 1970
- Exact and Approximate Solutions for Multiple Scattering by Cloudy and Hazy Planetary AtmospheresJournal of the Atmospheric Sciences, 1969
- Asymptotic fitting, a method for solving anisotropic transfer problems in thick layersJournal of Computational Physics, 1968
- Influence of Particle Size Distribution on Reflected and Transmitted Light from CloudsApplied Optics, 1968
- Electromagnetic Scattering from Absorbing SpheresApplied Optics, 1967
- On the Relation of Transmission‐Line Theory to Scattering and TransferJournal of Mathematics and Physics, 1962
- Invariant Imbedding and Mathematical Physics. I. Particle ProcessesJournal of Mathematical Physics, 1960