Pulsed "three-photon" light
T. V. Gevorgyan, G. Yu. Kryuchkyan

TL;DR
This paper explores the generation of photon-triplet states in a pulsed nonlinear optical system, demonstrating enhanced three-photon correlations and nonclassical properties relevant for quantum information processing.
Contribution
It introduces a method for producing photon-triplets using pulsed laser-driven cascaded three-photon splitting in a nonlinear cavity, analyzing their quantum correlations and nonclassical features.
Findings
Photon-triplet correlations exceed continuous pumping cases.
Nonclassical phase-space characteristics demonstrated via Wigner function.
Enhanced three-photon-number correlation depending on pulse parameters.
Abstract
Generating multi-photon entangled states is a primary task for applications of quantum information processing. We investigate production of photon-triplet in a regime of light amplification in second-order nonlinear media under action of a pulsed laser beam. For this goal the process of cascaded three-photon splitting in an optical cavity driven by a sequence of laser pulses with Gaussian time-dependent envelopes is investigated. Considering production of photon-triplet for short-time regime and in the cascaded three-wave collinear configuration Generating multi-photon entangled states is a primary task for applications of quantum information processing. We investigate production of photon-triplet in a regime of light amplification in second-order nonlinear media under action of a pulsed laser beam. For this goal the process of cascaded three-photon splitting in an optical cavity driven…
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Taxonomy
TopicsLaser-Matter Interactions and Applications · Quantum optics and atomic interactions · Photonic and Optical Devices
