The imaging resolution of conventional lenses is limited by diffraction. Artificially engineered
metamaterials now offer the possibility of building a superlens that overcomes this limit. We …

Metalens, a metasurface with a focusing phase, has been the focus of research due to its
immense potential for use in imaging and display technology. Traditional lens and optical …

The past decade has seen numerous efforts to achieve imaging resolution beyond that of
the Abbe− Rayleigh diffraction limit. The main direction of research aiming to break this limit …

We introduce the resonant metalens, a cluster of coupled subwavelength resonators.
Dispersion allows the conversion of subwavelength wave fields into temporal signatures …

We experimentally demonstrate a wide field surface plasmon (SP) assisted super-resolution
imaging technique, plasmonic structured illumination microscopy (PSIM), by combining …

We report here the design, fabrication and characterization of optical hyperlens that can
image sub-diffraction-limited objects in the far field. The hyperlens is based on an artificial …

This chapter focuses on one of the emerging super-resolution techniques, plasmonic
structured illumination microscopy (PSIM), which combines tunable surface plasmon …

Resolution of the conventional lens is limited to half the wavelength of the light source by
diffraction. In the conventional optical system, evanescent waves, which carry sub-diffraction …

Surface plasmons (SPs) are electromagnetic excitations existing at the interface between a
metal and a dielectric material. Control and manipulation of light based on SPs at the …

We report that two-dimensional (2D) sub-diffraction-limited images can be theoretically
reconstructed by a new metamaterial far-field superlens. The metamaterial far-field …