Does Circulation in Individual Current States Survive in the Total Current Density?

We describe the two-dimensional simulation of a bent resonant tunneling diode structure which displays vortices in its total current density pattern over a range of applied bias. In contrast, a double gate n-MOSFET is shown where such circulation exists in individual subband states but does not surv...

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Veröffentlicht in:Journal of computational electronics 2003-12, Vol.2 (2-4), p.105-108
Hauptverfasser: Laux, S.E., Kumar, A., Fischetti, M.V.
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Kumar, A.
Fischetti, M.V.
description We describe the two-dimensional simulation of a bent resonant tunneling diode structure which displays vortices in its total current density pattern over a range of applied bias. In contrast, a double gate n-MOSFET is shown where such circulation exists in individual subband states but does not survive in the total current density solution. Both devices are simulated assuming ballistic quantum transport in Si at 300 K.
doi_str_mv 10.1023/B:JCEL.0000011407.24435.d9
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subjects Current density
Quantum transport
Resonant tunneling
Tunnel diodes
title Does Circulation in Individual Current States Survive in the Total Current Density?
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