ACS Applied Materials & Interfaces · 2019 · 34 citations · 49 references
Natural SciencesMaterials EngineeringMaterials ScienceEnergy MaterialsNanomaterialsNanotechnologyCarbon NanomaterialsCarbon NanotubesConductive MaterialsDopingElectrical ConductivityGraphene NanomaterialsCarbon Nanotube Electrical ConductivityCarbon Nanotube NanocompositesCarbon Nanotube NetworksConductive FillersElectrical Conductivity EnhancementElectronic TransportFermi LevelGraphene
The following paper explores the nature of electronic transport in a hybrid carbon nanotube-graphene conductive network. These networks may have a tremendous impact on the future formation of new electrical conductors, batteries, and supercapacitors, as well as many other electronic and electrical applications. The experiments described show that the deposition of graphene nanoflakes within a carbon nanotube network improves both its electrical conductivity and its current-carrying capacity. They also show that the effectiveness of doping is enhanced. To explain the effects observed in the hybrid carbon nanotube-graphene conductive network, a theoretical model was developed. The theory explains that graphenes are not merely effective conductive fillers of the carbon nanotube networks but also effective bridges that are able to introduce additional states at the Fermi level of carbon nanotubes.
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