Perfect Optical Solitons: Spatial Kerr Solitons as Exact Solutions of Maxwell's Equations
Alessandro Ciattoni, Bruno Crosignani, Paolo Di Porto, Amnon Yariv
Abstract
We prove that spatial Kerr solitons, usually obtained in the frame of nonlinear Schroedinger equation valid in the paraxial approximation, can be found in a generalized form as exact solutions of Maxwell's equations. In particular, they are shown to exist, both in the bright and dark version, as linearly polarized exactly integrable one-dimensional solitons, and to reduce to the standard paraxial form in the limit of small intensities. In the two-dimensional case, they are shown to exist as azimuthally polarized circularly symmetric dark solitons. Both one and two-dimensional dark solitons exhibit a characteristic signature in that their asymptotic intensity cannot exceed a threshold value in correspondence of which their width reaches a minimum subwavelength value.
Create a lesson
Related papers
Reconfigurable multi-tone mmWave/THz generation powered by high-efficiency Kerr parametric oscillation
Dong IL Lee, Fanqi Shen, Wenzheng Liu et al.
Contrast-Enhanced Nonlinear Imaging with Moiré Flatband Superlattices
Amin Zamani, Lihang Feng, Jianji Liu et al.
Ray propagation of circularly polarized light in an inhomogeneous medium: the optical Magnus effect from Maxwell's equations
Igor Kuzmenko, Y. B. Band
Coherent 1-μm-Band Co-Transmission with C+L-Band Channels over 50-km Hollow-Core Fiber
Siyu Chen, Zichen Qian, Mingming Zhang et al.
Axion polarimetry with parametric readout: photon-number conversion and sensitivity limits
Antonio Capolupo, Gabriele Pisacane, Raoul Serao
Inline inter-core phase control in multi-core fiber with a commercial polarization controller
A. Contreras, A Muñoz, G. dos Santos et al.