The last few years have seen an explosion of interest in hydrodynamic effects in interacting
electron systems in ultra-pure materials. One such material, graphene, is not only an …

Vortices are the hallmarks of hydrodynamic flow. Strongly interacting electrons in ultrapure
conductors can display signatures of hydrodynamic behaviour, including negative non-local …

In this paper I report a pedagogical derivation of the unconventional electronic
hydrodynamics in graphene on the basis of the kinetic theory. While formally valid in the …

Inspired by recent experiments on graphene, we examine the nondissipative viscoelastic
response of anisotropic two-dimensional quantum systems. We pay particular attention to …

Viscous phenomena are the hallmark of the hydrodynamic flow exhibited by Dirac fermions
in clean graphene at high enough temperatures. We report a quantitative calculation of the …

In this study, we present our experimental investigation on the magnetotransport properties
of a two-dimensional electron system in GaAs quantum wells utilizing a variety of device …

We explore the magnetohydrodynamics of Dirac fermions in neutral graphene in the
Corbino geometry. Based on the fully consistent hydrodynamic description derived from a …

We observe a large negative magnetoresistance and a decrease of resistivity with
increasing temperature, known as the Gurzhi effect, in a bilayer (BL) electron system formed …

When electrons flow as a viscous fluid in anisotropic metals, the reduced symmetry can lead
to exotic viscosity tensors with many additional, nonstandard components. We present a …

We explore hydrodynamics of Dirac fermions in neutral graphene in the Corbino geometry.
In the absence of a magnetic field, the bulk Ohmic charge flow and the hydrodynamic energy …