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Springer eBooks

Photon Echo and Self-Induced Transparency Phenomena

V. M. Akulin, Nikolai V. Karlov

Published Jan 1, 1992• 0 citations
Publisher
DOI
10.1007/978-3-642-61241-1_3

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В. В. Самарцев

A brief review is given of the papers presented at the Second All-Union Symposium on Optical Echo, which was held in Kazan on June 17–19, 1981. The following topics were discussed at the Symposium: optical (photon) and phonon echo, self-induced transparency, nutation, superradiance, superscattering, and spectroscopic applications of these phenomena.

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Microscopic Theory of Rabi Flopping, Photon Echo, and Resonant Pulse Propagation in Semiconductors

Stephan W. Koch, A. Knorr, Rolf H. Binder +1 more

Abstract The phenomena of Rabi oscillations, resonant pulse propagation, and photon echo in semiconductors are investigated by numerically solving the full semiconductor Bloch equations for the example of bulk CdSe. The calculations are done for resonant femtosecond excitation at the exciton resonance. The many‐body modifications of Rabi flopping and semiconductor photon echo are discussed for a thin medium, whereas the propagation of weak and strong pulses is analyzed for an extended material. Rabi flopping of the density can lead to field reamplification and thus to long propagation distances of sufficiently strong pulses and to pulse break‐up. The area theorem known from self‐induced transparency (SIT) in atomic systems is generalized for the case of phase modulated fields and shown to be modified significantly in semiconductors. Even though no ideal SIT occurs, the Coulomb interacting electron–hole system nevertheless seems to support extremely long propagation distances of so‐called π‐pulses.

physica status solidi (b)•Sep 1, 1992•34 citations

Generation and relaxation of photon echoes

Sven R. Hartmann

•Jan 1, 1969•1 citation
Abstract The phenomena of Rabi oscillations, resonant pulse propagation, and photon echo in semiconductors are investigated by numerically solving the full semiconductor Bloch equations for the example of bulk CdSe. The calculations are done for resonant femtosecond excitation at the exciton resonance. The many‐body modifications of Rabi flopping and semiconductor photon echo are discussed for a thin medium, whereas the propagation of weak and strong pulses is analyzed for an extended material. Rabi flopping of the density can lead to field reamplification and thus to long propagation distances of sufficiently strong pulses and to pulse break‐up. The area theorem known from self‐induced transparency (SIT) in atomic systems is generalized for the case of phase modulated fields and shown to be modified significantly in semiconductors. Even though no ideal SIT occurs, the Coulomb interacting electron–hole system nevertheless seems to support extremely long propagation distances of so‐called π‐pulses.