We describe a method for calculating the solution of the electromagnetic field in a non-rectilinear open waveguide by using a series expansion, starting from the field of a rectilinear waveguide. Our approach is based on a method of variation of boundaries. We prove that the obtained series expansion converges and we provide a radiation condition at infinity in such a way that the problem has a unique solution. Our approach can model several kinds of optical devices which are used in optical integrated circuits. Numerical examples will be shown for the case of finite aperiodic waveguide grating couplers
Scattering of time-harmonic electromagnetic plane waves by a doubly periodic surface structure in $R...
Abstract. The higher degree of freedom available for non-periodic gratings (as compared with their p...
ii We develop a computational algorithm for solving the stationary Maxwell equation at the interface...
We describe a method for calculating the solution of the electromagnetic field in a non-rectilinear...
Abstract: "We have recently introduced a method of variation of boundaries for the solution of diffr...
A boundary Variation method for the analysis of both infinite periodic and finite aperiodic waveguid...
A regular boundary element method is employed for the variational formulation of the Helmholtz equat...
A boundary variation method for the fast and accurate modeling of three-dimensional waveguide gratin...
Regular boundary element method is employed for the variational formulation of Helmholtz equation th...
We present a mathematical framework for studying the problem of electromagnetic wave propagation in ...
The authors derive a variational formulation for anisotropic, dielectric waveguides using only the (...
The coupling of waveguides is modeled to a mathematical problem for an internal region. The transiti...
The propagation of electromagnetic waves in dielec-tric slab waveguides with periodic corrugations i...
To implement the method of adiabatic waveguide modes for modeling the propagation of polarized monoc...
We consider linear propagation through shallow, nonuniform gratings, such as those written in the co...
Scattering of time-harmonic electromagnetic plane waves by a doubly periodic surface structure in $R...
Abstract. The higher degree of freedom available for non-periodic gratings (as compared with their p...
ii We develop a computational algorithm for solving the stationary Maxwell equation at the interface...
We describe a method for calculating the solution of the electromagnetic field in a non-rectilinear...
Abstract: "We have recently introduced a method of variation of boundaries for the solution of diffr...
A boundary Variation method for the analysis of both infinite periodic and finite aperiodic waveguid...
A regular boundary element method is employed for the variational formulation of the Helmholtz equat...
A boundary variation method for the fast and accurate modeling of three-dimensional waveguide gratin...
Regular boundary element method is employed for the variational formulation of Helmholtz equation th...
We present a mathematical framework for studying the problem of electromagnetic wave propagation in ...
The authors derive a variational formulation for anisotropic, dielectric waveguides using only the (...
The coupling of waveguides is modeled to a mathematical problem for an internal region. The transiti...
The propagation of electromagnetic waves in dielec-tric slab waveguides with periodic corrugations i...
To implement the method of adiabatic waveguide modes for modeling the propagation of polarized monoc...
We consider linear propagation through shallow, nonuniform gratings, such as those written in the co...
Scattering of time-harmonic electromagnetic plane waves by a doubly periodic surface structure in $R...
Abstract. The higher degree of freedom available for non-periodic gratings (as compared with their p...
ii We develop a computational algorithm for solving the stationary Maxwell equation at the interface...