This paper reports a theoretical characterization of carbon nanotubes matrices using a full-wave undulatory description of charge carriers, self-consistent with external and self-generated potentials. The effect of nanotubes coupling on charge and current confinement is described, by a new in-house simulation toolkit that can easily solve for 3D arrays of packed nanotubes, possibly multi-wall, in a multi-band framework. The availability of such a tool could be of crucial importance in view of the multiplicity of nanotechnology applications of CNT arrays as sensors, field effect transitors, quantum dots, interconnects and antennas.
Self-Consistent and Full-Wave Analysis of Carbon-Nanotube Matrices for Multi-Channel Charge Confinement / Mencarelli, D.; Zampa, G. M.; Joseph Christopher, H.; Pierantoni, L.. - ELETTRONICO. - 2022-:(2022), pp. 898-901. (Intervento presentato al convegno International Microwave Symposium tenutosi a Denver (USA) nel June 2022) [10.1109/IMS37962.2022.9865632].
Self-Consistent and Full-Wave Analysis of Carbon-Nanotube Matrices for Multi-Channel Charge Confinement
Mencarelli D.
;Zampa G. M.;Joseph Christopher H.;Pierantoni L.
2022-01-01
Abstract
This paper reports a theoretical characterization of carbon nanotubes matrices using a full-wave undulatory description of charge carriers, self-consistent with external and self-generated potentials. The effect of nanotubes coupling on charge and current confinement is described, by a new in-house simulation toolkit that can easily solve for 3D arrays of packed nanotubes, possibly multi-wall, in a multi-band framework. The availability of such a tool could be of crucial importance in view of the multiplicity of nanotechnology applications of CNT arrays as sensors, field effect transitors, quantum dots, interconnects and antennas.I documenti in IRIS sono protetti da copyright e tutti i diritti sono riservati, salvo diversa indicazione.
