Titlebook: Quantum Optics of Confined Systems; Martial Ducloy,Daniel Bloch Book 1996 Kluwer Academic Publishers 1996 Laser.Optics.STEM.atomic physics

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Basics of Cavity Quantum Electrodynamics,ifted. In extreme situations, the spontaneous emission may even become a reversible, oscillatory process. The study of these effects constitutes the growing field of Cavity Quantum Electrodynamics (CQED).

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Nonlinear Optics in Micro-Meter Sized Droplets,sing and nonlinear optical effects in an optical cell are well studied and much understood, when dye lasing and nonlinear optical experiments are conducted in the spherical, nearly spherical, and cylindrical liquid microstructures, inevitably “surprises” occur because of the microstructure morphology (size, shape, and index of refraction).

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Semiconductor Quantum Wells,uminescence properties of quantum wells (QW) embedded in a sample exhibiting no optical resonance. Nevertheless, an attempt will be made in each section to present some recent results concerning QW-based optical microcavities, which make up a physical system where both the electronic part and the optical part of the system are confined.

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Basics of Cavity Quantum Electrodynamics,nfined space can thus be very different from the free space ones. For instance, spontaneous emission rates can be altered, the energy levels may be shifted. In extreme situations, the spontaneous emission may even become a reversible, oscillatory process. The study of these effects constitutes the g

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Photon Statistics, Non-Classical Light and Quantum Interference, optical measurement as illustrated in figure 1. The light is created in an emission process typically involving the transition of an atom from the excited state to the ground state with consequent emission of a ‘photon’ which is a manifestly quantum event. Photo-detection is also manifestly quantum