Local gating of a graphene Hall bar by graphene side gates
arXiv:0709.2970 · doi:10.1103/PhysRevB.76.245426
Abstract
We have investigated the magnetotransport properties of a single-layer graphene Hall bar with additional graphene side gates. The side gating in the absence of a magnetic field can be modeled by considering two parallel conducting channels within the Hall bar. This results in an average penetration depth of the side gate created field of approx. 90 nm. The side gates are also effective in the quantum Hall regime, and allow to modify the longitudinal and Hall resistances.
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Cited by in corpus (10)
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- Ambipolar Graphene Field Effect Transistors by Local Metal Side Gates
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- Coulomb oscillations in three-layer graphene nanostructures
- Graphene Side Gate Engineering
- Transport through a strongly coupled graphene quantum dot in perpendicular magnetic field