The field of metamaterials has opened landscapes of possibilities in basic science, and a
paradigm shift in the way we think about and design emergent material properties. In many …

The development of metamaterials, ie, artificially structured materials that interact with waves
in unconventional ways, has revolutionized our ability to manipulate the propagation of …

The terahertz region is a special region of the electromagnetic spectrum that incorporates
the advantages of both microwaves and infrared light waves. In the past decade …

We prove that balanced loss-gain distributions provide an elegant path towards realizing
loss-free unidirectional cloaks for objects much larger than the wavelength. By coating a …

Recent advances in metasurfaces, ie, artificial arrays of engineered inclusions assembled
over a thin surface, have opened promising venues to control electromagnetic waves in …

We introduce the concept and practical design of broadband, ultrathin cloaks based on non-
Foster, negatively capacitive metasurfaces. By using properly tailored, active frequency …

We propose and analyze a graphene-based cloaking metasurface aimed at achieving
widely tunable scattering cancelation in the terahertz (THz) spectrum. This' one-atom …

Graphene is the strongest material ever studied and can be an efficient substitute for silicon.
This six-volume handbook focuses on fabrication methods, nanostructure and atomic …

Active electromagnetic cloaking uses an array of elementary sources to cancel the scattered
fields created by an object. An active interior cloak does this by placing the sources along …

We present the design and realization of anisotropic mantle cloaks operating, at the same
frequency, for both TM and TE incident polarizations. Starting from the analytical model of …