Abstract 2D optics is gradually emerging as a frontier in modern optics. Plasmons in
graphene provide a prominent platform for 2D optics in which the light is squeezed into …

Metamaterial analogues of electromagnetically induced transparency (EIT) have been
intensively studied and widely employed for slow light and enhanced nonlinear effects. In …

Near-field coupled plasmonic systems generally achieve plasmonically induced
transparency (PIT) using only one-way bright–dark mode coupling. However, it is …

Due to its transparent and highly dispersive nature, plasmonically induced transparency
(PIT) has become an attractive field in the on-chip control of light. Conventional methods to …

We propose to achieve multi-band perfect plasmonic absorptions with peak absorptivity>
99% via the excitation of standing-wave graphene surface plasmon polaritons using single …

On-chip plasmon-induced transparency (PIT) possessing the unique properties of
controlling light propagation states is a promising way to on-chip ultrafast optical connection …

Various nonreciprocal thermal emitters, which provide opportunities for higher energy
conversion efficiency, have been proposed to completely violate the traditional Kirchhoff's …

We propose a novel simple patterned monolayer graphene metamaterial structure based on
tunable terahertz plasmon-induced transparency (PIT). Destructive interference in this …

A nanoscale sensor which comprises dielectric-metal-dielectric waveguide and plasmonic
metasurface resonators is proposed to realize plasmon-induced transparency responses …

A monolayer terahertz graphene metasurface is designed to achieve tunable plasmon-
induced transparency (PIT) effect in two perpendicular polarization directions based on …