Wigner Monte Carlo approach to quantum transport in nanodevices

The Wigner Monte Carlo approach is shown to provide an efficient way to study quantum transport in the presence of scattering and to connect semi-classical to quantum transport. The study of resonant tunneling diodes highlights the physics of the impact of scattering on resonant tunneling, and on el...

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Hauptverfasser: Dollfus, P., Querlioz, D., Saint-Martin, J., Do, V.-N., Bournel, A.
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Saint-Martin, J.
Do, V.-N.
Bournel, A.
description The Wigner Monte Carlo approach is shown to provide an efficient way to study quantum transport in the presence of scattering and to connect semi-classical to quantum transport. The study of resonant tunneling diodes highlights the physics of the impact of scattering on resonant tunneling, and on electron decoherence and localization. The simulation of nano-MOSFET evidences a mixed regime, where both quantum transport and scattering play a significant role.
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subjects Equations
Green function
Logic gates
Mathematical model
Monte Carlo methods
MOSFETs
Phonons
Quantum theory
Resonant tunneling devices
Resonant Tunneling Diodes
Scattering
Tunneling
Wigner distributions
title Wigner Monte Carlo approach to quantum transport in nanodevices
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