DocumentCode :
1989565
Title :
Quantum transport simulation of Bilayer pseudoSpin Field-Effect Transistor (BiSFET) with tight-binding hartree-fock model
Author :
Xuehao Mou ; Register, Leonard F. ; Banerjee, Sanjay K.
Author_Institution :
Microelectron. Res. Center, Univ. of Texas at Austin, Austin, TX, USA
fYear :
2013
fDate :
3-5 Sept. 2013
Firstpage :
420
Lastpage :
423
Abstract :
A simulation tool for modeling superfluid quantum transport in the proposed Bilayer Psuedo-spin Field Effect Transistor (BiSFET) and related systems is described and demonstrated. An interlayer Fock exchange interaction is incorporated into a π-orbital based atomistic tight-binding model of transport in two graphene layers separated by a tunnel barrier. Simulation results support and extend expectations based on bulk analysis such as superfluid condensate formation, enhanced interlayer tunneling and the sub-thermal voltage (sub-kBT/q) switching. Extension of this method to other quasi-two dimensional material systems should be possible as well.
Keywords :
HF calculations; field effect transistors; graphene; semiconductor device models; superfluidity; tight-binding calculations; tunnelling; BiSFET; C; atomistic tight-binding model; bilayer pseudospin field effect transistor; graphene layers; interlayer Fock exchange interaction; interlayer tunneling; quantum transport simulation; subthermal voltage switching; superfluid condensate formation; superfluid quantum transport; tight binding Hartree-Fock model; tunnel barrier; Atomic layer deposition; Couplings; Elementary particle exchange interactions; Graphene; Photonic band gap; Switches; Tunneling; BiSFET; Fock exchange; atomistic tight binding; graphene; quantum transport; superfluid condensate;
fLanguage :
English
Publisher :
ieee
Conference_Titel :
Simulation of Semiconductor Processes and Devices (SISPAD), 2013 International Conference on
Conference_Location :
Glasgow
ISSN :
1946-1569
Print_ISBN :
978-1-4673-5733-3
Type :
conf
DOI :
10.1109/SISPAD.2013.6650664
Filename :
6650664
Link To Document :
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