Titlebook: Quantum Statistics of Linear and Nonlinear Optical Phenomena; Jan Pe?ina Book 1984 Jan Pe?ina 1984 Absorption.Sorption.Speckle.coherence.e

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Introduction,d applications. The statistical properties of optical fields manifest themselves in the form of their coherence properties in the optical region, where the classical wave behaviour of the long-wave region overlaps with the chaotic particle behaviour ot the short-wave region. Many papers and other wo

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Quantum Theory of the Electromagnetic Field,sible region, thus allowing the measurement of, for example, the statistics of photons. This was in contrast to earlier investigations where the detecting devices were able to respond only to intense currents of photons. Thus the particle character of the electromagnetic field may now be studied dir

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Optical Correlation Phenomena,field, and show relations between various kinds of experiments and the corresponding quantum correlation functions. We consider the detection of a field using the interaction of this field with matter. If the detection device, composed of atoms, is assumed to be in its ground state, then photons are

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Review of Nonlinear Optical Phenomena,requency conversion, self-focusing, Raman, Brillouin and hyper-Raman scattering and multiphoton absorption and emission; we also provide a brief review of resonant coherent phenomena, such as superradiance, self-induced transparency and photon echoes. A more detailed quantum statistical treatment is

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Quantum Statistics of Radiation in Random Media,edia, particularly with Gaussian and log-normal media, such as the turbulent atmosphere in certain regimes of fluctuation. We will not go into the nature and the structure of turbulence, which has been intesively investigated recently [e.g. Haken (1978), Sinaya and Shilnikov (1981), Jansen and Oberm

Inertia

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