Nanocommunication and the unique interaction of single molecules in interaction with electronic nanoparticles based on carbon nanotubes (based on nanotechnology - microelectronics PHD)
Researcher and author PhD student: Afshin Rashid
Note: Noise is a low-frequency random oscillation that occurs in many nano-telecommunication devices, including nanoparticles, the environment, and organisms. Noise can obscure signals, so it is often overlooked by electronic and radio transmissions.
The source of noise in nanotechnology is now mostly in carbon nanotubes based on nanocommunication functions and the structure of graphene particles in nanotubes in interaction for nanotechnological communication purposes by (nanoparticles) in CNT single-walled carbon nanotubes and several CNTs wall is done. Nanomaterials with a high surface-to-volume ratio are very attractive to noise generated by nano-electrons because they are very sensitive to surface changes. One such representative is carbon nanotubes, which are rolled sheets of graphene hexagonal mesh with a thickness of only one carbon atom.
Simple nanocommunication devices consisting of a carbon nanotube that creates two electrodes. These communication magnetic particles are exposed to various large molecules, causing some of them to attach to the surface of the carbon nanotube. In nano-telecommunications , different molecules give unique sound signals about the properties of molecules. The power of the interaction between carbon nanotubes and molecules is generated by noise signals. In nano-telecommunications, the interaction with electronic nanoparticles based on carbon nanotubes, the signal generated by the carbon nanotube device has changed following the absorption of specific individual molecules. This is because the adsorbent molecule creates a trap in the carbon nanotube, which directs it.This means that carbon nanotubes based on carbon nanotubes are very sensitive. And they can detect an unparalleled amount of single molecules. The ability to describe individual molecules using highly sensitive nanoelectronics is an exciting perspective on sensors, especially for neural applications and biosensors. The use of audio signals to detect molecular activity ("interaction" or "active orbit") is attractive. In nanoparticles and interaction with carbon nanotube-based electronic nanoparticles, signal detection sensitivity may be increased through the production of controllable noise. These carbon nanotube-based nano-telecommunication devices show that it is possible to identify individual molecules through their unique noise particles in current nano-telecommunication signals. Improved knowledge of the molecular origin and interaction with electron nanoparticles based on carbon nanotubes should lead to the development of electronics that use noise to improve their performance instead of destroying it.
Conclusion:
Nanocommunication and the unique interaction of single molecules in interaction with carbon nanotube-based electronic nanoparticles include low-frequency random oscillation noise that occurs in many nanoparticles, including nanotechnology, the environment, and organisms. Noise can obscure signals, so it is often overlooked by electronic and radio transmissions.
Author: PhD Student ( Afshin Rashid)