Nano Letters · 2015 · 82 citations · 29 references
Natural SciencesMaterials SciencePhysicsCondensed Matter PhysicsMaterials PhysicsNanomaterialsCarbon NanomaterialsCarrier TransportCharge Carrier TransportElectron TransportGraphene NanomaterialsQuantum ConfinementBallistic TransportFew-layer GrapheneGrapheneGraphene NanostructuresTight-binding ApproximationTight-binding ModelsTight-binding TheoryTransport In Graphene
In graphene, the extremely fast charge carriers can be controlled by electron-optical elements, such as waveguides, in which the transmissivity is tuned by the wavelength. In this work, charge carriers are guided in a suspended ballistic few-mode graphene channel, defined by electrostatic gating. By depleting the channel, a reduction of mode number and steps in the conductance are observed, until the channel is completely emptied. The measurements are supported by tight-binding transport calculations including the full electrostatics of the sample.
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