A generic envelope equation is proposed for describing the evolution of scalar pulses in systems with spatiotemporal dispersion and cubic-quintic nonlinearity. Our analysis has application, for instance, in waveguide optics where the physical origin of the dielectric response lies in the χ(3) and χ(5) susceptibilities. Exact analytical bright and gray solitons are derived by coordinate transformations and methods of direct integration. Known solitons of conventional pulse theory (based on nonlinear-Schrödinger prescriptions) are shown to emerge asymptotically as subsets of the more general spatiotemporal solutions, and simulations test the stability of the latter through a class of perturbed initial-value problem
We propose a more complete model for describing the evolution of scalar optical pulses in nonlinear ...
A simple scalar model for describing spatiotemporal dispersion of pulses, beyond the classic “slowly...
A simple scalar model for describing spatiotemporal dispersion of pulses, beyond the classic “slowly...
A generic envelope equation is proposed for describing the evolution of scalar pulses in systems wit...
A generic envelope equation is proposed for describing the evolution of scalar pulses in systems wit...
We consider an envelope equation with space-time symmetry for describing scalar waves in systems wit...
We consider an envelope equation with space-time symmetry for describing scalar waves in systems wit...
We consider an envelope equation with space-time symmetry for describing scalar waves in systems wit...
We propose a simple scalar model for describing pulse phenomena beyond the conventional slowly-varyi...
We propose a simple scalar model for describing pulse phenomena beyond the conventional slowly-varyi...
We propose a simple scalar model for describing pulse phenomena beyond the conventional slowly-varyi...
A generic nonparaxial model for pulse envelopes is presented. Classic Schro¨dinger-type description...
A generic nonparaxial model for pulse envelopes is presented. Classic Schro¨dinger-type description...
A generic nonparaxial model for pulse envelopes is presented. Classic Schro¨dinger-type description...
We explore a more complete model for describing the evolution of scalar optical pulses in generic no...
We propose a more complete model for describing the evolution of scalar optical pulses in nonlinear ...
A simple scalar model for describing spatiotemporal dispersion of pulses, beyond the classic “slowly...
A simple scalar model for describing spatiotemporal dispersion of pulses, beyond the classic “slowly...
A generic envelope equation is proposed for describing the evolution of scalar pulses in systems wit...
A generic envelope equation is proposed for describing the evolution of scalar pulses in systems wit...
We consider an envelope equation with space-time symmetry for describing scalar waves in systems wit...
We consider an envelope equation with space-time symmetry for describing scalar waves in systems wit...
We consider an envelope equation with space-time symmetry for describing scalar waves in systems wit...
We propose a simple scalar model for describing pulse phenomena beyond the conventional slowly-varyi...
We propose a simple scalar model for describing pulse phenomena beyond the conventional slowly-varyi...
We propose a simple scalar model for describing pulse phenomena beyond the conventional slowly-varyi...
A generic nonparaxial model for pulse envelopes is presented. Classic Schro¨dinger-type description...
A generic nonparaxial model for pulse envelopes is presented. Classic Schro¨dinger-type description...
A generic nonparaxial model for pulse envelopes is presented. Classic Schro¨dinger-type description...
We explore a more complete model for describing the evolution of scalar optical pulses in generic no...
We propose a more complete model for describing the evolution of scalar optical pulses in nonlinear ...
A simple scalar model for describing spatiotemporal dispersion of pulses, beyond the classic “slowly...
A simple scalar model for describing spatiotemporal dispersion of pulses, beyond the classic “slowly...