The idea behind the invisible blanket was born out of experiments by MIT researchers. The transformation design method was used to develop an invisible blanket of Carbon nanotubes which conduct heat. They created an infinitely thin surface that looks like another silver rooftop. Visitors under the canopy are hidden from view, while the surrounding city is filtered through its golden underside.
Quantum cloak
A quantum cover is a physical device which allows an object to hide from an observer. A conformal mapping is a process in which the mass parameters and states of a particle are converted to isotropic states using an external force. This is known as a quantum cloak. This force is also known as the electrical force.
A quantum cloak is a useful tool that can be used for military purposes. This unique combination of light-bending, nanotechnology fabric and nanotechnology can make it difficult for enemy eyes to see an object. This kind of cloak is already being tested on soldiers and marines to give them cover against sniper attacks.
Invisibility cloak based on transformation design method
The invisibility blanket can be modeled with the transformation design method. The transformation method takes into account the physical properties of a material as the basis for designing. These components are used to determine the properties of the Cloak. These components vary from zero to one at each of the cloak's outer and inner boundaries.
The physical properties a material has meant that the authors have created an invisible cloak, which uses ultrasonic waves to make it invisible. Invisibility was achieved by reducing the number of parameters. This preserves the invisibility effect while also preserving the effective refractive Index.
Carbon nanotubes conduct heat
Carbon nanotubes, which are very thin carbon sheets that conduct heat extremely efficiently, are extremely thin sheets. Scientists who examined the nanotubes discovered that they can reach temperatures as high as 2,800 kelvins without having to burn carbon. This is more than twice the amount of heat that is generated in the average fire.
These nanotubes are available in single-wall, double-wall, and multi-wall forms. A single-wall version of these nanotubes can be visualized by wrapping one-atom thick graphite around an cylinder. The double-wall model is more complex, and there is a gap between the conduction band and the valance.