2001
DOI: 10.1016/s0030-4018(01)01573-5
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Tandem light bullets

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Cited by 58 publications
(30 citation statements)
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“…Solitons (or, more properly, solitary waves) in Kerr-type focusing media are described by the cubic nonlinear Schrödinger (NLS) equation and they are known to be unstable in two and three dimensions because of the occurrence of the collapse of the wave packet (see, e.g., the review [4]). Various schemes to arrest the collapse were proposed such as the use of weaker saturable [5] or quadratic nonlinearities [6][7][8][9], or to use the concept of nonlinearity and group-velocity dispersion (GVD) management in tandem structures, which are composed of periodically alternating linear dispersive and quadratically nonlinear layers [10]. Other recent approaches use off-resonance two-level systems [11], self-induced-transparency media [12], inhomogeneous, dispersive nonlinear media (for example, a graded index Kerr medium [13]), or small negative fourth-order GVD to arrest the spatiotemporal collapse [14] (this scheme works only in two dimensions, that is, in a planar waveguide with pure Kerr nonlinearity).…”
mentioning
confidence: 99%
“…Solitons (or, more properly, solitary waves) in Kerr-type focusing media are described by the cubic nonlinear Schrödinger (NLS) equation and they are known to be unstable in two and three dimensions because of the occurrence of the collapse of the wave packet (see, e.g., the review [4]). Various schemes to arrest the collapse were proposed such as the use of weaker saturable [5] or quadratic nonlinearities [6][7][8][9], or to use the concept of nonlinearity and group-velocity dispersion (GVD) management in tandem structures, which are composed of periodically alternating linear dispersive and quadratically nonlinear layers [10]. Other recent approaches use off-resonance two-level systems [11], self-induced-transparency media [12], inhomogeneous, dispersive nonlinear media (for example, a graded index Kerr medium [13]), or small negative fourth-order GVD to arrest the spatiotemporal collapse [14] (this scheme works only in two dimensions, that is, in a planar waveguide with pure Kerr nonlinearity).…”
mentioning
confidence: 99%
“…For n 2 > 0, but n 4 < 0 this form describes the competition between self-focusing occurring at low intensity and self-defocusing taken on the high intensities. The opposite occurs for n 2 < 0, but n 4 > 0 (Torner et al 2001), and (4) assume the form…”
Section: Theoretical Framework and Numerical Proceduresmentioning
confidence: 99%
“…Numerous approaches for obtaining spatiotemporal solitons (light bullets) have been considered theoretically, e.g. by using saturation nonlinearity (Edmundson and Enns 1992;Akhmediev and Soto-Crespo 1993), nonlocal nonlinearity Mihalache et al (2006b), tandem structures that are composed of linear and nonlinear materials (Torner et al 2001), and through manipulating the diffraction and/or dispersion by periodic structures (Aceves et al 1994;Laedke et al 1994;Xu et al 2004;Sukhorukov and Kivshar 2006b). In this paper we propose an approach for propagation and stability of spatiotemporal solitons periodically modulated in planar waveguide and with cubic-quintic nonlinearity.…”
Section: Introductionmentioning
confidence: 99%
“…Another possibility is to consider periodic mismatch management, which corresponds to the situation with the QPM is implemented in the form of a superlattice, rather than a simple periodic lattice [26]. It is also relevant to mention theoretically investigated tandem systems, that offer a possibility to minimize the mismatch in a waveguide built as a periodic concatenation of linear and v ð2Þ -nonlinear segments, in the temporal [27,28] and spatiotemporal [29] domains alike (a v ð3Þ -counterpart of the tandems is represented by split-step systems [31][32][33][34]). The self-trapping of light in walkoff-compensating tandem structures was demonstrated experimentally in Ref.…”
Section: Introductionmentioning
confidence: 99%