Title :
A general transmission line model for conventional metallic nanowires and innovative carbon nano-interconnects
Author :
Maffucci, A. ; Miano, G.
Author_Institution :
D.I.E.I., Univ. of Cassino & Southern Lazio, Cassino, Italy
Abstract :
A general transmission line model is presented, able to describe a large class of nano-interconnects, made either by conventional metallic nanowires or by innovative carbon materials (carbon nanotubes or graphene nanoribbons). A common frame is presented here, which allows describing the electrodynamics of such nano-structures by means of a modified Boltzmann transport equation. This model leads to a non-local dispersive Ohm´s law, which is then coupled to Maxwell equations, to obtain the transmission line model. The quantum effects arising in nano-interconnects are included in the per-unit-length parameters of the transmission line model, so allowing the embedding of nano-interconnects into standard circuit simulators. The propagation properties of interconnects made by nanowires, carbon nanotubes and graphene nanoribbons are studied and a performance comparison is given, referring to the typical arrangements foreseen for the technology nodes of some nanometers.
Keywords :
Boltzmann equation; Maxwell equations; carbon nanotubes; graphene; interconnections; nanoelectronics; nanoribbons; nanowires; Maxwell equations; carbon nanotubes; conventional metallic nanowires; general transmission line model; graphene nanoribbons; innovative carbon nanointerconnects; modified Boltzmann transport equation; nanostructure electrodynamics; nonlocal dispersive Ohm law; quantum effect; Carbon; Carbon nanotubes; Copper; Materials; Mathematical model; Nanowires; Power transmission lines;
Conference_Titel :
Signal and Power Integrity (SPI), 2013 17th IEEE Workshop on
Conference_Location :
Paris
Print_ISBN :
978-1-4673-5678-7
DOI :
10.1109/SaPIW.2013.6558342