A mathematical approach is introduced for predicting quantized resistances in graphene pn
junction devices that utilize more than a single entry and exit point for electron flow …

We present simulations of quantum transport in graphene pn junctions (pn Js) in which
moiré superlattice potentials are incorporated to demonstrate the interplay between pn Js …

Graphene's outstanding mechanical properties lend to strain engineering, allowing for future
valleytronics and nanoelectromechanic applications. In this work, we have found that a …

In the last decade, graphene has become an exciting platform for electron optical
experiments, in some aspects superior to conventional two-dimensional electron gases …

At high magnetic fields the conductance of graphene is governed by the half-integer
quantum Hall effect. By local electrostatic gating ap–n junction perpendicular to the …

The utilization of multiple current terminals on millimeter-scale graphene p–n junction
devices has enabled the measurement of many atypical, fractional multiples of the quantized …

We show evidence of the backscattering of quantum Hall edge channels in a narrow
graphene Hall bar, induced by the gating effect of the conducting tip of a scanning gate …

We consider a small p-type island defined within an n-type graphene nanoribbon induced
by the potential of a floating electrode. In the quantum Hall conditions the island supports …

Equilibration of quantum Hall edges is studied in a high quality dual gated bilayer graphene
device in both unipolar and bipolar regimes when all the degeneracies of the zero energy …

Just a few of the promising applications of graphene Corbino pnJ devices include two-
dimensional Dirac fermion microscopes, custom programmable quantized resistors, and …