A generic nonparaxial model for pulse envelopes is presented. Classic Schro¨dinger-type descriptions ofwave propagation have their origins in slowly-varying envelopes combined with a Galilean boost to thelocal time frame. By abandoning these two simplifications, a picture of pulse evolution emerges in whichframe-of-reference considerations and space-time transformations take center stage. A wide range ofeffects, analogous to those in special relativity, then follows for both linear and nonlinear systems. Explicitdemonstration is presented through exact bright and dark soliton pulse solutions
We propose a new model for describing the evolution of scalar optical pulses in Kerr-type waveguides...
The origin of conventional models for optical pulse propagation lies in the universal slowly-varying...
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 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...
Temporal solitons are robust self-localizing pulses that play a pivotal role in modern understanding...
The slowly varying envelope approximation and the ensuing Galilean boost to a local time frame are n...
We propose a simple scalar model for describing pulse phenomena beyond the conventional slowly-varyi...
We explore a more complete model for describing the evolution of scalar optical pulses in generic no...
We propose a novel nonlinear Helmholtz equation for modelling pulses in optical waveguides. Exact an...
We present the first detailed account of modelling pulses in Helmholtz-type nonlinear systems with b...
The origin of conventional models for nonlinear optical pulse propagation lies in the ubiquitous slo...
We propose a new model for describing the evolution of scalar optical pulses in Kerr-type planar wav...
A vector model, fully-second-order in both space and time, is proposed for coupled electromagnetic ...
We propose a new model for describing the evolution of scalar optical pulses in Kerr-type waveguides...
The origin of conventional models for optical pulse propagation lies in the universal slowly-varying...
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 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...
Temporal solitons are robust self-localizing pulses that play a pivotal role in modern understanding...
The slowly varying envelope approximation and the ensuing Galilean boost to a local time frame are n...
We propose a simple scalar model for describing pulse phenomena beyond the conventional slowly-varyi...
We explore a more complete model for describing the evolution of scalar optical pulses in generic no...
We propose a novel nonlinear Helmholtz equation for modelling pulses in optical waveguides. Exact an...
We present the first detailed account of modelling pulses in Helmholtz-type nonlinear systems with b...
The origin of conventional models for nonlinear optical pulse propagation lies in the ubiquitous slo...
We propose a new model for describing the evolution of scalar optical pulses in Kerr-type planar wav...
A vector model, fully-second-order in both space and time, is proposed for coupled electromagnetic ...
We propose a new model for describing the evolution of scalar optical pulses in Kerr-type waveguides...
The origin of conventional models for optical pulse propagation lies in the universal slowly-varying...
We propose a simple scalar model for describing pulse phenomena beyond the conventional slowly-varyi...