A plasmonic structure with transmission highly tunable in the mid-infrared spectral range is developed. This structure consists of a hexagonal array of metallic discs located on top of silicon pillars protruding through holes in a metallic Babinet complementary film. We reveal with FDTD simulations that changing the hole diameter tunes the main plasmonic resonance frequency of this structure throughout the infrared range. Due to the underlying Babinet physics of these coupled arrays, the spectral width of these plasmonic resonances is strongly reduced, and the higher harmonics are suppressed. Furthermore, we demonstrate that this structure can be easily produced by a combination of the nanosphere lithography and the metal-assisted chemical ...
Infrared (IR) antennas made of metallic nanostructures are widely tunable from the near- to the far-...
Electromagnetic interactions in nanoscale systems are a driving force of research in the field of na...
The optical transmission and electric field distribution of plasmonic nanostructures dictate their p...
We present an experimental and theoretical study of Babinet’s principle of complementarity in plasmo...
We demonstrate that the spectral location of extraordinary optical transmission (EOT) resonances in ...
Metallic nanostructures that exhibit tailored optical resonances spanning from the near to mid-infra...
High-density and long-lived plasmonic hot-spots are an ideal system for high-sensitive surface-enhan...
Metal nanoarchitectures producing optical responses in the visible and near-infrared form the founda...
In this paper, we report on the manipulation of the near-field coupling in individual gold nanoanten...
We demonstrate tunable, near-IR plasmonic nanoantennas using a 2D array of relatively large Au bowti...
We report on tuning the plasmonic properties of gold nanoantenna arrays resonant in the infrared (IR...
In this work three different metallic metamaterials (MMs) structures such as asymmetric split ring r...
We report on systematic investigations of plasmonically active nanoslits as a beneficial substrate f...
In this paper, we have experimentally demonstrated the formation of plasmonic band gap cavities in i...
We demonstrate third harmonic generation in plasmonic antennas consisting of highly doped germanium ...
Infrared (IR) antennas made of metallic nanostructures are widely tunable from the near- to the far-...
Electromagnetic interactions in nanoscale systems are a driving force of research in the field of na...
The optical transmission and electric field distribution of plasmonic nanostructures dictate their p...
We present an experimental and theoretical study of Babinet’s principle of complementarity in plasmo...
We demonstrate that the spectral location of extraordinary optical transmission (EOT) resonances in ...
Metallic nanostructures that exhibit tailored optical resonances spanning from the near to mid-infra...
High-density and long-lived plasmonic hot-spots are an ideal system for high-sensitive surface-enhan...
Metal nanoarchitectures producing optical responses in the visible and near-infrared form the founda...
In this paper, we report on the manipulation of the near-field coupling in individual gold nanoanten...
We demonstrate tunable, near-IR plasmonic nanoantennas using a 2D array of relatively large Au bowti...
We report on tuning the plasmonic properties of gold nanoantenna arrays resonant in the infrared (IR...
In this work three different metallic metamaterials (MMs) structures such as asymmetric split ring r...
We report on systematic investigations of plasmonically active nanoslits as a beneficial substrate f...
In this paper, we have experimentally demonstrated the formation of plasmonic band gap cavities in i...
We demonstrate third harmonic generation in plasmonic antennas consisting of highly doped germanium ...
Infrared (IR) antennas made of metallic nanostructures are widely tunable from the near- to the far-...
Electromagnetic interactions in nanoscale systems are a driving force of research in the field of na...
The optical transmission and electric field distribution of plasmonic nanostructures dictate their p...