Zhang and his group have already exploited the linear optical properties of metamaterials to create the world's first
optical invisibility cloak and mimic black holes.
«Ideal
optical invisibility cloaks in air have a drawback,» Martin Wegener points out.
The laws of physics prevent
an optical invisibility cloak from making objects in air invisible for any directions, colors, and polarizations.
In their work with metamaterials, Zhang and his research group have generated the world's first
optical invisibility cloak, mimicked black holes, and created the first plasmonic nanolasers.
Not exact matches
Engineers are working with metamaterials to create super-microscopes,
optical computers, and yes,
invisibility cloaks.
It was in the summer of 2008 that Zhang's group took the first small step toward creating a real - world
invisibility cloak by fabricating the first
optical metamaterial to work in three dimensions.
Besides
invisibility cloaks, ideas have been floated to exploit metamaterials for high - resolution
optical «superlenses», devices to better...
But Shalaev and Pendry note that the ultimate application of the technology may not involve
invisibility at all but could instead facilitate more powerful
optical communication links and circuits.
The new work by Levitov and his colleagues provides one piece of such a system — and potentially of other advanced electro -
optical systems, he says, such as negative - refraction materials that have been proposed as a kind of «
invisibility cloak.»
Alessandro Tuniz at the University of Sydney's Institute of Photonics and
Optical Science in Australia is one of many physicists interested in the optical metamaterials that are being fashioned into «invisibility cloaks» in labs across the
Optical Science in Australia is one of many physicists interested in the
optical metamaterials that are being fashioned into «invisibility cloaks» in labs across the
optical metamaterials that are being fashioned into «
invisibility cloaks» in labs across the world.
He has made pioneering discoveries in plasmonic cloaking (caused by the interaction of light and metal nanostructures) and
invisibility,
optical nanocircuits and nanoantennas, non-reciprocal devices, and giant nonlinear response in
optical metamaterials.
Collectively, they opened the door to possibilities that range from
optical computing to
invisibility cloaks.
The winners of the 2014 Kavli Prize in Nanoscience — Thomas Ebbesen, Stefan Hell and Sir John Pendry — discuss breaking the limits of what we can do with light and opening the door to possibilities ranging from
optical computing to
invisibility cloaks.