Generic interacting many-body quantum systems are believed to behave as classical fluids
on long time and length scales. Due to rapid progress in growing exceptionally pure crystals …

Although a relatively new area of nanoscience, nonlinear plasmonics has become a fertile
ground for the development and testing of new ideas pertaining to light–matter interaction …

Excitons (coupled electron–hole pairs) in semiconductors can form collective states that
sometimes exhibit spectacular nonlinear properties. Here, we show experimental evidence …

We have proposed several four metasurface sensor designs that include metasurface
design with no gaps (MSDG), metasurface design with outer gaps (MSDG1), metasurface …

Coulomb drag is a transport phenomenon whereby long-range Coulomb interaction
between charge carriers in two closely spaced but electrically isolated conductors induces a …

Motivated by recent experimental progress in preparing encapsulated graphene sheets with
ultrahigh mobilities up to room temperature, we present a theoretical study of dc transport in …

Graphene is a one-atom-thick planar sheet of a honeycomb carbon crystal. Its gapless and
linear energy spectra of electrons and holes lead to nontrivial features such as giant carrier …

Thermally excited electrons and holes form a quantum-critical Dirac fluid in ultraclean
graphene and their electrodynamic responses are described by a universal hydrodynamic …

In a fluid subject to a magnetic field, the viscous stress tensor has a dissipationless
antisymmetric component controlled by the so-called Hall viscosity. We here propose an all …

This paper reviews recent advances in graphene active plasmonics for terahertz (THz)
device applications. Two-dimensional plasmons in graphene exhibit unique optoelectronic …