What is nanoradio?
If there was doubt that the future of the science had arrived, consider the production of 10,000 radios on a spring of human hair size. This unlikely scenario describes a very real nanoradio. The receiving and transmitting structure consists of carbon nanotubes that can be associated into fibers. The structure is formed on the nanometer scale; This means that in billions of meters or atom thickness. For existing technologies, nanoradio can work in telecommunications and common electronic applications, as well as a number of possible innovations. Technically, Fullerene structures that include buckyball or geodetic structural formula. Graphen walls of the only atomic thick are extended into tubes. Carbon carbon molecules are called fullerenes; These are thus named after Buckminster Fuller, a Tarchitectural modeler and inventor of the structure of the geodetic grid. Like atomic strong chicken sources, it can also be shaped in many other ways; Can be rolled, laid in a STUh, or protruded into the emitters of the field nanobud. Carbon nanotubes are able to function in all ways of radio components. For example, they can work as antennas, amplifiers, tuners and demodulators.
traditional radios translate air radio waves into electronic stream. Nanoradio, however, behaves much more like vibrating hair inner ear or tuning fork. With one end rooted into the electrode, the fiber vibrates and changes the electric field of the battery.
vibrates in harmony with an electromagnetic signal that is essentially demodulated or amplified. Depending on the technical design, the sound can be produced by mechanical vibrations or thermoacoustically. Nanotubes can play back -offs without external circuits, filters or signal processors, unlike larger electronic radios; And they are a thousand times smaller than silicone chip radios.
nanoradio's belly as a solution would be da daLo to ask what the problem is. The development of radio devices, which are small enough to occupy the patient's bloodstream or ear canal, indicates many possible future innovations. More well -known is that this technology can well operate a large number of wireless applications.
Portable electronics, such as mobile phones, music players and headsets, as well as computers and gaming platforms, can benefit from these microscopic MarConi devices. The modern, cable world often relies on radio transmission and microwaves between countless devices. On this atomic scale, the world shifts the width of hair closer to the new golden age of Nanoradio.