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Journal of Experimental and Theoretical Physics

Spectral distributions of the intensity and polarization in single-photon quantum transitions in a strong electromagnetic field.

Igor G. Mitrofanov, Alexei S. Pozanenko

Published Jan 1, 1991• 0 citations
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A theory describing the absorption and emission spectra of an atomic transition in the field of an intense monochromatic wave with arbitrary polarization composition is developed. The theory includes a quantum description of forward-directed four-wave interaction processes. Expressions are obtained for describing the absorption and emission spectra in transitions adjacent to the working transition. The description developed includes the perturbation of the atomic subsystem by a constant magnetic field. The spectral characteristics, polarization composition, and angular distribution of the resonance fluorescence are investigated. The nonlinear Faraday effect and the properties of resonance fluorescence are investigated for the transition J =1→ J =0.
The fluctuation properties of energy spectrum, electromagnetic transition intensities and electromagnetic moments in nucleus are investigated with realistic shell model calculations. We find that the spectral fluctuations of are consistent with the Gaussian orthogonal ensemble of random matrices. Besides, we observe a transition from an order to chaos when the excitation energy is increased and a clear quantum signature of the breaking of chaoticity when the single-particle energies are increased. The distributions of the transition intensities and of the electromagnetic moments are well described by a Porter-Thomas distribution. The statistics of electromagnetic transition intensities clearly deviate from a Porter-Thomas distribution (i.e., a transition towards regularity is observed) when the single-particle energies are increased whereas the statistics of electromagnetic moments are not affected by the change of the single-particle energies.