Electrically conductive graphene nano-strips and transport transfer (transport_ballistic) based on PhD in nano-microelectronics (PhD in research)
Researcher and author: Dr. ( Afshin Rashid)
Note: Electrically conductive graphene nano-strips in the structure of multilayer and monolayer nanotubes show signs of transport ballistic . Although the electrical conductivity of graphene improved by electrochemical methods is not as perfect as that of graphene, it is still a viable option for the production of electrically conductive graphene nanofibers .
Inside the carbon nanotubes, SWCNTs are mixed with graphene current-conducting fillers to obtain light-conducting, conductive materials with a minimum electrical resistance of less than 105 m / Ω. These graphene nanoparticles show a nonlinear increase in the amount of electrical conductivity, which is a function of the amount of amplifier phase. At a certain amount of nanoparticles, known as the permeability threshold, the nanoparticle is able to form a lattice structure. This causes a sudden increase in the electrical conductivity of graphene nano- strips within the carbon nanotubes of CNTs. Intrinsic conductivity and length-to-width ratio of carbon-based filler nanoparticles make them selective Suitable for achieving this permeability threshold in small amounts of the filler phase forms graphene nano-strips within CNTs nanotubes. Perfect graphene plates show signs of transport ballistic . Although the electrical conductivity of graphene, modified by electrochemical methods, is not as perfect as that of graphene, it is still a viable option for the production of electrically conductive graphene nanofibers .

Researcher and author: Dr. ( Afshin Rashid)
PhD in Nano-Microelectronics