Physical review. A, General physics · 1970 · 59 citations · 19 references
Natural SciencesPhysicsOpticsRadiation TransportSpectroscopyPhoton TransportPhysical OpticsRadiation Transport In MatterRadiative EquilibriumRadiative ProcessesRadiative TransferAtomic Line ShapesLine Shape AnalysisOptical DepthRadiative Transfer EquationsRadiative Transfer TheoryRadiative Transport TheorySpectral Line Radiative TransferSpectral Line Shapes
In the previous paper, the Biberman-Holstein integral equation was solved for a slab and for all line shapes of interest in the limit of high optical depth. The eigenfunctions and eigenvalues obtained are used for the general calculation of the stationary number density in the excited state, when collisional excitation and deexcitation takes place, when excitation takes place by absorption of external radiation, or by both combined. General expressions are given for the line shape of a spectral line emitted by an optically dense slab, showing typical broadening and self-reversal.
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Higher Transcendental Functions.
C. Truesdell, H. Bateman, Arthur Erdélyi et al. · American Mathematical Monthly · 1954 · 4.5K citations
Imprisonment of Resonance Radiation in Gases
T. Holstein · Physical Review · 1947 · 1.5K citations
Imprisonment of Resonance Radiation in Gases. II
T. Holstein · Physical Review · 1951 · 975 citations
Natural Sciences, Physics, Optics +14