Electromagnetic fields with strong optical chirality can be formed in the near field of chiral plasmonic nanostructures. We calculate and visualize the degree of chirality to identify regions with relatively high values. This analysis leads to design principles for a simple utilization of chiral fields. We investigate planar geometries, which offer a convenient way to access the designated fields, as well as three-dimensional nanostructures, which show a very high local optical chirality
Chiral metamaterials can have diverse technological applications, such as engineering strongly twist...
Chiral metamaterials can have diverse technological applications, such as engineering strongly twist...
Recent progress in nanofabrication has redrawn the boundaries of the applicability of chiroptical (c...
This book describes the physics behind the optical properties of plasmonic nanostructures focusing o...
Electromagnetic fields with strong optical chirality can be formed in the near-field of chiral plasm...
We report a new approach for creating chiral plasmonic nanomaterials. A previously unconsidered, far...
Plasmonic nanostructures have demonstrated a remarkable ability to control light in ways never obser...
Chiral fields with large optical chirality are very important in chiral molecules analysis, sensing ...
Strong chiroptical effects recently reported result from the interaction of light with chiral plasmo...
Dark-field illumination is shown to make planar chiral nanoparticle arrangements exhibit circular di...
Chiral metallic nanostructures can generate evanescent fields which are more highly twisted than cir...
The interaction of circularly polarized light with matter is the basis for molecular circular dichro...
The plasmonic chiroptical effect has been used to manipulate chiral states of light, where the stron...
The interaction of circularly polarized light with matter is the basis for molecular circular dichro...
Chiral metamaterials can have diverse technological applications, such as engineering strongly twist...
Chiral metamaterials can have diverse technological applications, such as engineering strongly twist...
Chiral metamaterials can have diverse technological applications, such as engineering strongly twist...
Recent progress in nanofabrication has redrawn the boundaries of the applicability of chiroptical (c...
This book describes the physics behind the optical properties of plasmonic nanostructures focusing o...
Electromagnetic fields with strong optical chirality can be formed in the near-field of chiral plasm...
We report a new approach for creating chiral plasmonic nanomaterials. A previously unconsidered, far...
Plasmonic nanostructures have demonstrated a remarkable ability to control light in ways never obser...
Chiral fields with large optical chirality are very important in chiral molecules analysis, sensing ...
Strong chiroptical effects recently reported result from the interaction of light with chiral plasmo...
Dark-field illumination is shown to make planar chiral nanoparticle arrangements exhibit circular di...
Chiral metallic nanostructures can generate evanescent fields which are more highly twisted than cir...
The interaction of circularly polarized light with matter is the basis for molecular circular dichro...
The plasmonic chiroptical effect has been used to manipulate chiral states of light, where the stron...
The interaction of circularly polarized light with matter is the basis for molecular circular dichro...
Chiral metamaterials can have diverse technological applications, such as engineering strongly twist...
Chiral metamaterials can have diverse technological applications, such as engineering strongly twist...
Chiral metamaterials can have diverse technological applications, such as engineering strongly twist...
Recent progress in nanofabrication has redrawn the boundaries of the applicability of chiroptical (c...