The ability to bend, stretch, and roll metamaterial devices on flexible substrates adds a new
dimension to aspects of manipulating electromagnetic waves and promises a new wave of …

The changing balance of forces at the nanoscale offers the opportunity to develop a new
generation of spatially reconfigurable nanomembrane metamaterials in which …

A thermally tunable terahertz window based on the combination of a metamaterial and the
phase change material VO2 is proposed. The window is composed of two vanadium oxide …

We demonstrate a classical analog of electromagnetically induced transparency (EIT) in a
highly flexible planar terahertz metamaterial (MM) comprised of three-gap split-ring …

Metamaterials have been deployed for a wide range of fields including invisible cloak,
superlens, electromagnetic wave absorption and magnetic resonance imaging, owing to …

We report the simulation, fabrication, and experimental characterization of a multichannel
metamaterial absorber with the aim to be used as a label-free sensing platform in the …

Terahertz waves, which lie in the frequency range of 0.1-10 THz, have long been
investigated in a few limited fields, such as astronomy, because of a lack of devices for their …

Metamaterials, artificially constructed structures that mimic lattices in natural materials, have
made numerous contributions to the development of unconventional optical devices. With an …

Optical metamaterials consist of artificially engineered structures exhibiting unprecedented
optical properties beyond natural materials. Optical metamaterials offer many novel …

Wearable electronics have attracted a tremendous amount of attention due to their many
potential applications, such as personalized health monitoring, motion detection, and smart …