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Proceedings of SPIE, the International Society for Optical Engineering/Proceedings of SPIE

Dual-pump four-wave mixing in a distributed feedback laser

M. Fisher, Alan Hsu, Shun Lien Chuang

Published Jul 23, 2003• 0 citations
Publisher

Abstract

In this work, we demonstrate properties of a novel dual-pump four-wave mixing (DPFWM) scheme using a distributed-feedback (DFB) laser. The DFB laser acts as the mixing medium and one of the pump sources, while the second pump and the probe are injected. New experimental results are shown, including successful demonstration of the power laws of this scheme. We also show the effects of the wavelength detunings on the conversion efficiency and the signal-to-noise rations of the output signals.

DOI
10.1117/12.474326

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A theory for the nonlinear properties of optical-frequency conversion using nearly degenerate four-wave mixing in semiconductor lasers is presented for the first time. Because of pump depletion, the converted signal and the conversion efficiency depend on both the injected probe power and the frequency detuning. The relaxation resonance frequency and the damping rate are both related to the probe signal, especially for a high optical injection level. The theory is in good agreement with experiments.
In this paper, nearly degenerate four-wave mixing created by pump-probe structure with small frequency spacing and enough high power is demonstrated and discussed by introducing single optical beam into single-mode Fabry-Pérot laser diode, in which the injected beam is called the probe wave, whose frequency detuning is controlled within ±50 GHz, and lasing resonance mode such as dominant mode or arbitrarily residual side mode is selected as the pump wave. In the case of dominant mode like the pump wave, conjugate signals around the pump-probe wave are easily observed for positive and negative probe detuning by judiciously tuning injected probe power. While external injection mode is moved towards the side mode selected as the pump wave, newly generated signals only occurred with small positive probe detuning. As the probe wave with positive frequency detuning is close to the pump wave, higher order conjugate signals are gradually grown. Under the condition of side mode as the pump wave, the strongly nonlinear mixing of the pump-probe wave also gives rise to new frequency signals on both sides of the dominant mode with enough high peak level. Against the change of correspondingly initial power and frequency detuning of the probe wave, outcome spectrum, output power, and conversion efficiency of conjugate signals are analyzed in detail, while dominant or one side mode is, respectively, selected as the pump wave.
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