As quantum technologies develop, a specific class of electrically conducting materials is
rapidly gaining interest because they not only form the core quantum‐enabled elements in …

Despite much theoretical effort, there is no complete theory of the “strange” metal state of the
high temperature superconductors, and its linear-in-temperature T resistivity. Recent …

Tuning the charge carrier density of two-dimensional (2D) materials by incorporating
dopants into the crystal lattice is a challenging task. An attractive alternative is the surface …

We develop a hydrodynamic description of transport properties in graphene-based systems,
which we derive from the quantum kinetic equation. In the interaction-dominated regime, the …

Two-component systems with equal concentrations of electrons and holes exhibit
nonsaturating, linear magnetoresistance in classically strong magnetic fields. The effect is …

Disorder‐induced magnetoresistance (MR) effect is quadratic at low perpendicular magnetic
fields and linear at high fields. This effect is technologically appealing, especially in 2D …

Graphene-based Hall effect magnetic field sensors hold great promise for the development
of ultrasensitive magnetometers with very low power consumption. Their performance is …

Topological Dirac semimetals (TDS) are three-dimensional analogues of graphene, with
linear electronic dispersions in three dimensions. Nanoscale confinement of TDSs in thin …

We have measured magnetoresistance of suspended graphene in the Corbino geometry at
magnetic fields up to B= 0.15 T, ie, in a regime uninfluenced by Shubnikov–de Haas …

There is a huge demand for magnetoresistance (MR) sensors with high sensitivity, low
energy consumption, and room temperature operation. It is well-known that spatial charge …