Wave diffraction is fundamentally difficult to overcome in the routing and interconnection of photonic signals. Although the phenomenon of reflectionless transport through sharp corners in a routing path has been realized in many previous demonstrations, wave diffraction does not allow them to transport deep-subwavelength information or sub-diffraction-limited images. Recent advances in ɛ -near-zero and anisotropic ɛ -near-infinity metamaterials have provided unique possibilities of achieving reflectionless diffraction-free electromagnetic wave routing, but their designs are fundamentally limited to narrow bandwidths, and they have not been demonstrated in reality. Here we experimentally demonstrate broadband reflectionless diffractio...
Almost a decade ago, transformation optics established a geometrical perspective to describe the int...
The routing of light in a deep subwavelength regime enables a variety of important applications in p...
Molding the wavefront of light is a basic principle of any optical design. In conventional optical c...
High-efficiency diffraction-free manipulations of electromagnetic (EM) waves are fundamentally diffi...
The routing and interconnection of optical signals through narrow channels and around sharp corners ...
Microwave waveguides allow an effective transfer of electromagnetic energy through straight connecti...
International audienceWe demonstrate experimentally that reflectionless scattering modes (RSMs), a g...
We compare quantitatively the transmission properties of various 60degrees bends carved into a photo...
ABSTRACT: We demonstrate numerically that sharp 90° bends and T-splitters can be designed in plasmon...
Following our recent theoretical and experimental results that show how zero-permittivity metamateri...
We demonstrate experimentally that reflectionless scattering modes (RSMs), a generalized version of ...
The bending and guiding of the electromagnetic (EM) waves in highly confined waveguides was demonstr...
Metamaterials make use of subwavelength building blocks to enhance our control on the propagation of...
We report the first experimental demonstration of guiding, bending, filtering, and splitting of EM w...
We demonstrate that approximately 100% transmission of a strongly localized channel plasmon-polarito...
Almost a decade ago, transformation optics established a geometrical perspective to describe the int...
The routing of light in a deep subwavelength regime enables a variety of important applications in p...
Molding the wavefront of light is a basic principle of any optical design. In conventional optical c...
High-efficiency diffraction-free manipulations of electromagnetic (EM) waves are fundamentally diffi...
The routing and interconnection of optical signals through narrow channels and around sharp corners ...
Microwave waveguides allow an effective transfer of electromagnetic energy through straight connecti...
International audienceWe demonstrate experimentally that reflectionless scattering modes (RSMs), a g...
We compare quantitatively the transmission properties of various 60degrees bends carved into a photo...
ABSTRACT: We demonstrate numerically that sharp 90° bends and T-splitters can be designed in plasmon...
Following our recent theoretical and experimental results that show how zero-permittivity metamateri...
We demonstrate experimentally that reflectionless scattering modes (RSMs), a generalized version of ...
The bending and guiding of the electromagnetic (EM) waves in highly confined waveguides was demonstr...
Metamaterials make use of subwavelength building blocks to enhance our control on the propagation of...
We report the first experimental demonstration of guiding, bending, filtering, and splitting of EM w...
We demonstrate that approximately 100% transmission of a strongly localized channel plasmon-polarito...
Almost a decade ago, transformation optics established a geometrical perspective to describe the int...
The routing of light in a deep subwavelength regime enables a variety of important applications in p...
Molding the wavefront of light is a basic principle of any optical design. In conventional optical c...