Paper
28 April 2005 Cavity light bullets: 3D self-confined structures in a passive nonlinear resonator (Invited Paper)
Massimo Brambilla, Tommaso Maggipinto, Giuseppe Patera, Lorenzo Columbo
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Abstract
We consider the paraxial model for a nonlinear resonator with a saturable absorber beyond the mean-field limit. We introduce a general stability analysis to evidence modulational-instabilities leading to the destabilization of a homogeneous field profile, eventually causing the formation of 3D structures. Further on, for accessible parametric domains, we show in simulations the phenomenon of total radiation confinement leading to the formation of 3D localized bright structures. Such structures are a direct generalization of 2D Cavity Solitons, recently observed in broad-area VCSELs, but they are confined also in the propagation dimension. At difference from freely propagating light bullets, here the self-organization proceeds from the resonator feedback/dissipation, combined with diffraction and nonlinearity. We show that such cavity light bullets can be independently excited and erased by appropriate pulses. They can be addressed to form arrays in the transverse field profile as well as serial trains in the longitudinal direction of the resonator thus combining serial and parallel encoding in the same device. Once created, they endlessly travel the cavity roundtrip.
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Massimo Brambilla, Tommaso Maggipinto, Giuseppe Patera, and Lorenzo Columbo "Cavity light bullets: 3D self-confined structures in a passive nonlinear resonator (Invited Paper)", Proc. SPIE 5722, Physics and Simulation of Optoelectronic Devices XIII, (28 April 2005); https://doi.org/10.1117/12.605534
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KEYWORDS
Resonators

3D modeling

Modulation

Computer programming

Diffraction

Mirrors

Gaussian pulse

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