Statistical description of short pulses in long optical fibers: Effects of nonlocality
P. K. Shukla, M. Marklund
Abstract
We present a statistical description of the propagation of short pulses in long optical fibers, taking into account the Kerr and nonlocal nonlinearities on an equal footing. We use the Wigner approach on the modified nonlinear Schroedinger equation to obtain a wave kinetic equation and a nonlinear dispersion relation. The latter exhibit that the optical pulse decoherence reduces the growth rate of the modulational instability, and thereby contribute to the nonlinear stability of the pulses in long optical fibers. It is also found that the interaction between spectral broadening and nonlocality tends to extend the instability region.
Create a lesson
Related papers
3D Printed Monolithic Optomechanical Chassis for an Unbalanced Field-Widened Interferometer
Ramy Tannous, Dogan Sinar, Sagar Patel et al.
Photonic and Electronic Interaction of TMD-Hybridized ZnO Nanowire Lasers
Moritz Willems, Edwin Eobaldt, Alexander Zaunick et al.
Geometric Pumping of Optical Work in Coherent Wave Scattering
Zeyu Kuang, Konstantin Y. Bliokh, Stefan Rotter
Phase matching and mode coupling in photonic-crystal ring resonators
Alexander E. Ulanov, Lukas Bengel, Tobias Herr
Directional Control of Chiral Polymer Emission Dissymmetry by Plasmonic Metasurfaces
Debapriya Pal, Louis Minion, David Reger et al.
Evanescent-Depth-Engineered High-Q topological Cavities for Strong Photon-Exciton Coupling
Zihan Mo, Renxuan Peng, Haoyang Zhang et al.