The integral equation for radiative transfer in a two-dimensional rectangular scattering medium exposed to diffuse radiation is solved numerically by removing the singularity. This method yielded accurate results except at very large optical thicknesses. Graphical and tabular results for the source function, flux, and intensity are presented. The source function is also calculated using the first term of a Taylor series expansion. The Taylor series is fairly accurate for small optical thicknesses and columnar geometries. A method is presented for extending these results to the problem of a strongly anisotropic scattering phase function which is made up of a spike in the forward direction superimposed on an isotropic phase function. © 1984
A modified discrete ordinates solution is developed for radiative transfer in a two-dimensional rect...
Abstract--A method is presented for solving the radiative transfer equation for a general niso-tropi...
An exact formulation for the source function, the radiative flux, and the intensity is presented for...
Two-dimensional multiple scattering in a rectangular medium exposed to uniform collimated radiation ...
The equations for the source function, flux, and scattered intensity normal to the surface are formu...
An exact integral equation is derived for the source function in a three-dimensional rectangular med...
Exact formulations are presented for the source function, intensity and flux for a two-dimensional, ...
The source function, radiative flux, and intensity at the boundaries are calculated for a two-dimens...
Exact formulations are presented for the source function, intensity and flux for a two-dimensional, ...
Exact formulations are presented for the source function, intensity and flux for a two-dimensional, ...
An exact mathematical formulation is developed for three-dimensional radiative transfer in a finite ...
Exact integral equations are derived describing the source function and radiative flux in a two-dime...
An exact formulation is presented for a nongray two-dimensional, finite, planar, absorbing-emitting ...
An exact formulation is presented for a nongray two-dimensional, finite, planar, absorbing-emitting ...
Small spatial frequency expansions for the source function and radiative flux are obtained for a pur...
A modified discrete ordinates solution is developed for radiative transfer in a two-dimensional rect...
Abstract--A method is presented for solving the radiative transfer equation for a general niso-tropi...
An exact formulation for the source function, the radiative flux, and the intensity is presented for...
Two-dimensional multiple scattering in a rectangular medium exposed to uniform collimated radiation ...
The equations for the source function, flux, and scattered intensity normal to the surface are formu...
An exact integral equation is derived for the source function in a three-dimensional rectangular med...
Exact formulations are presented for the source function, intensity and flux for a two-dimensional, ...
The source function, radiative flux, and intensity at the boundaries are calculated for a two-dimens...
Exact formulations are presented for the source function, intensity and flux for a two-dimensional, ...
Exact formulations are presented for the source function, intensity and flux for a two-dimensional, ...
An exact mathematical formulation is developed for three-dimensional radiative transfer in a finite ...
Exact integral equations are derived describing the source function and radiative flux in a two-dime...
An exact formulation is presented for a nongray two-dimensional, finite, planar, absorbing-emitting ...
An exact formulation is presented for a nongray two-dimensional, finite, planar, absorbing-emitting ...
Small spatial frequency expansions for the source function and radiative flux are obtained for a pur...
A modified discrete ordinates solution is developed for radiative transfer in a two-dimensional rect...
Abstract--A method is presented for solving the radiative transfer equation for a general niso-tropi...
An exact formulation for the source function, the radiative flux, and the intensity is presented for...