We discuss second-order complex Pade approximants which give a systematic approach to time-domain modeling of dispersive dielectric functions. These approximants, which also reduce to the classical Drude, Lorentz, Sellmeier, critical points and other models upon appropriate truncation, are used to compare frequency domain (FD) versus time-domain (TD) simulations of local optical responses and the transmission-reflection spectra for a plasmonic nanostructure. A comparison is also made using auxiliary differential equations (ADE), and second order recursive convolution (RC) formulations embedded in finite-difference, finite-volume, and finite-element time-domain solvers
The domain decomposition method based on overlapping grids is developed to solve the two-dimensional...
Metamaterials are artificially engineered to obtain unprecedented electromagnetic control leading to...
International audienceThe growing number of fields in which are studied the localized plasmon surfac...
The development of photonic nano-structures can strongly benefit from full-field electromagnetic (EM...
International audienceNanophotonics is the field of science and technology which aimed at establishi...
Over the last few decades, nano-fabrication techniques have evolved to such precision that novel opt...
International audienceA considerable amount of materials in nanophotonics are dispersive, enabling t...
Topology optimization techniques have been applied in integrated optics and nanophotonics for the in...
The paper addresses numerical time-domain methods for modeling of active and passive dispersive medi...
In this paper, we are concerned with the numerical modelling of the propagation of electromagnetic w...
Metamaterial which has negative permittivity and permeability is investigated via computer simulatio...
Investigating nanoplasmonics in an explicit time-dependent perspective is a natural choice when ligh...
The interaction of light with metallic nanostructures is of increasing interest for various field...
International audienceThe numerical study of electromagnetic wave propagation in nanophotonic device...
In this work, we present and study a flexible and accurate numerical solver in the context of three-...
The domain decomposition method based on overlapping grids is developed to solve the two-dimensional...
Metamaterials are artificially engineered to obtain unprecedented electromagnetic control leading to...
International audienceThe growing number of fields in which are studied the localized plasmon surfac...
The development of photonic nano-structures can strongly benefit from full-field electromagnetic (EM...
International audienceNanophotonics is the field of science and technology which aimed at establishi...
Over the last few decades, nano-fabrication techniques have evolved to such precision that novel opt...
International audienceA considerable amount of materials in nanophotonics are dispersive, enabling t...
Topology optimization techniques have been applied in integrated optics and nanophotonics for the in...
The paper addresses numerical time-domain methods for modeling of active and passive dispersive medi...
In this paper, we are concerned with the numerical modelling of the propagation of electromagnetic w...
Metamaterial which has negative permittivity and permeability is investigated via computer simulatio...
Investigating nanoplasmonics in an explicit time-dependent perspective is a natural choice when ligh...
The interaction of light with metallic nanostructures is of increasing interest for various field...
International audienceThe numerical study of electromagnetic wave propagation in nanophotonic device...
In this work, we present and study a flexible and accurate numerical solver in the context of three-...
The domain decomposition method based on overlapping grids is developed to solve the two-dimensional...
Metamaterials are artificially engineered to obtain unprecedented electromagnetic control leading to...
International audienceThe growing number of fields in which are studied the localized plasmon surfac...