_Part of the process (discharging)  for electric nanotubes

Electrical resistance (  Reverse  ) of CNT carbon nanotubes and CNTs

Researcher  and author: Dr.   (   Afshin Rashid)


Note: Carbon nanotubes, CNTs and CNTs in the reverse state  are highly sensitive to oxygen. Adding a small amount of oxygen to these nanotubes can  reverse their electrical resistance, as a result, semiconductor nanotubes  can become metal nanotubes due to the presence of oxygen.

Electronic conduction can affect some of the inherent properties of these nanotubes  Heat treatment on nanotubes reduces the number of structural defects of  nanotubes, defects that are caused by purification operations or  catalyst particles.  After  heat treatment, the electronic spectrum of CNT single-walled carbon nanotubes  lost its sensitivity to electronic conduction, while  it is sensitive to the electronic evolution of carbon nanotube particles in reverse mode  Therefore, some inherent properties for pure nanotubes  or those that have been slightly heated  are subjected to the reaction of electromagnetic particles and increase in conductivity in reverse mode.

The functionalization of the side wall of nanotubes leads to better connection of composites with nanotubes and also improves the sensitivity and electronic conductivity of CNT and CNTs carbon nanotubes. This charge transfer  provides important information about the electronic response in the reverse mode  of these nanoclusters, which  will affect the electron transfer in the nanotubes.  It allows  controlling the shape, dimensions, electronic resistance, and penetration of electromagnetic nanoparticles in the reverse mode on the nanotubes.  



Conclusion:

Carbon nanotubes, CNTs and CNTs in reverse electronic state  are highly sensitive to oxygen. Adding a small amount of oxygen to these nanotubes can  reverse their electrical resistance, as a result, semiconductor nanotubes  can become metal nanotubes due to the presence of oxygen.

Researcher  and author: Dr.   (   Afshin Rashid)

Specialized doctorate in nano-microelectronics