We propose a semianalytical formalism based on a time-domain resonant-mode-expansion theory to analyze the ultrafast temporal dynamics of optical nanoresonators. We compare the theoretical predictions with numerical data obtained with the FDTD method, which is commonly used to analyze experiments in the field. The comparison reveals that the present formalism (i) provides deeper physical insight onto the temporal response and (ii) is much more computationally efficient. Since its numerical implementation is easy, the formalism, albeit approximate, can be advantageously used to both analyze and design ultrafast nano-optics experiments
When material parameters are fixed, optical responses of nanoresonators are dictated by their shapes...
11 pags., 7 figs., app.In this study we present an analytical description of the ultrafast localized...
In this talk, we present a temporal coupled-mode theory for the light scattering where an individual...
We propose a semianalytical formalism based on a time-domain resonant-mode-expansion theory to analy...
We propose a semianalytical formalism based on a time-domain resonant-mode-expansion theory to analy...
We propose a novel hybrid method for accurately and efficiently analyzing microcavities and nanoreso...
A novel theoretical approach to the dynamics analysis of excitation and dephasing of plasmon modes i...
We develop a computational approach for ultrafast nano-optics based on first-principles time-depende...
Temporal coupled-mode theory (CMT) is an acclaimed and widely used theoretical framework for modelin...
We study the electromagnetic field scattered by a metallic nanoparticle with dispersive material par...
We investigate optical forces in the time domain, instead of using the time-average Maxwell stress t...
International audienceBy means of finite-difference time-domain (FDTD) simulations, the stationary a...
We derive a closed-form expression that accurately predicts the peak frequency shift and broadening ...
We provide a self-consistent electromagnetic theory of the coupling between dipole emitters and diss...
Determining the electromagnetic field response of photonic and plasmonic resonators is a formidable ...
When material parameters are fixed, optical responses of nanoresonators are dictated by their shapes...
11 pags., 7 figs., app.In this study we present an analytical description of the ultrafast localized...
In this talk, we present a temporal coupled-mode theory for the light scattering where an individual...
We propose a semianalytical formalism based on a time-domain resonant-mode-expansion theory to analy...
We propose a semianalytical formalism based on a time-domain resonant-mode-expansion theory to analy...
We propose a novel hybrid method for accurately and efficiently analyzing microcavities and nanoreso...
A novel theoretical approach to the dynamics analysis of excitation and dephasing of plasmon modes i...
We develop a computational approach for ultrafast nano-optics based on first-principles time-depende...
Temporal coupled-mode theory (CMT) is an acclaimed and widely used theoretical framework for modelin...
We study the electromagnetic field scattered by a metallic nanoparticle with dispersive material par...
We investigate optical forces in the time domain, instead of using the time-average Maxwell stress t...
International audienceBy means of finite-difference time-domain (FDTD) simulations, the stationary a...
We derive a closed-form expression that accurately predicts the peak frequency shift and broadening ...
We provide a self-consistent electromagnetic theory of the coupling between dipole emitters and diss...
Determining the electromagnetic field response of photonic and plasmonic resonators is a formidable ...
When material parameters are fixed, optical responses of nanoresonators are dictated by their shapes...
11 pags., 7 figs., app.In this study we present an analytical description of the ultrafast localized...
In this talk, we present a temporal coupled-mode theory for the light scattering where an individual...