Andrew Lucas

TL;DR: Employing high-sensitivity Johnson noise thermometry, an order of magnitude increase in the thermal conductivity and the breakdown of the Wiedemann-Franz law is reported in the thermally populated charge-neutral plasma in graphene, a signature of the Dirac fluid and constitutes direct evidence of collective motion in a quantum electronic fluid.

TL;DR: It is shown that time series observations of key physical variables for the North Pacific Ocean that seem to show these behaviours are not deterministically nonlinear, and are best described as linear stochastic, are first direct test for nonlinearity in large-scale physical and biological data for the marine environment.

TL;DR: A review of recent progress in understanding the hydrodynamic limit of electronic motion in graphene is presented, written for physicists from diverse communities with no prior knowledge of hydrodynamics.

TL;DR: In this article, the authors introduce new classes of hydrodynamic theories inspired by the recently discovered fracton phases of quantum matter, which are characterized by elementary excitations (fractons) with restricted mobility.