DocumentCode :
83456
Title :
Comparative Study on Multilayer Graphene Nanoribbon (MLGNR) Interconnects
Author :
Wen-Sheng Zhao ; Wen-Yan Yin
Author_Institution :
State Key Lab. of MOI, Zhejiang Univ., Hangzhou, China
Volume :
56
Issue :
3
fYear :
2014
fDate :
Jun-14
Firstpage :
638
Lastpage :
645
Abstract :
Based on an equivalent single-conductor (ESC) model of multilayer graphene nanoribbon (MLGNR) interconnects with side contacts, comparative study on their distributed parameters and transmission characteristics is performed in this paper. It is found that the number of conducting channels of a metallic MLGNR interconnect is the linear function of its width and Fermi energy, which can be described by an analytical equation. Its equivalent inductance and capacitance in the ESC model can also be characterized by a set of closed-form equations. Furthermore, according to the ITRS projection, transmission performance of the MLGNR interconnects with different contacts are predicted and compared with their Cu and carbon nanotube counterparts at different technology nodes. Also, some numerical results prove that MLGNR interconnects can provide better performance than Cu wires in particular at intermediate level. Even with the maximum crosstalk impacts considered, the advantage of MLGNR interconnects over Cu wires can still be kept.
Keywords :
carbon nanotubes; copper; graphene; integrated circuit interconnections; nanoribbons; Cu; ESC model; ITRS projection; analytical equation; carbon nanotube; closed-form equations; conducting channels; distributed parameters; equivalent capacitance; equivalent inductance; equivalent single-conductor model; intermediate level; linear function; maximum crosstalk impacts; metallic MLGNR interconnect; multilayer graphene nanoribbon interconnects; side contacts; technology nodes; transmission characteristics; Capacitance; Conductivity; Graphene; Inductance; Integrated circuit interconnections; Mathematical model; Scattering; Crosstalk; equivalent resistivity; equivalent single-conductor (ESC) model; multilayer graphene nano-ribbon (MLGNR); number of conducting channels; time delay;
fLanguage :
English
Journal_Title :
Electromagnetic Compatibility, IEEE Transactions on
Publisher :
ieee
ISSN :
0018-9375
Type :
jour
DOI :
10.1109/TEMC.2014.2301196
Filename :
6729036
Link To Document :
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