Strong coupling between resonantly matched surface plasmons of metals and excitons of
quantum emitters results in the formation of new plasmon-exciton hybridized energy states …

Plasmonic modes confined to metallic nanostructures at the atomic and molecular scale
push the boundaries of light–matter interactions. Within these extreme plasmonic structures …

Abstract Two-dimensional (2D) semiconductors possess strongly bound excitons, opening
novel opportunities for engineering light–matter interaction at the nanoscale. However, their …

Strong room-temperature light–matter coupling between quantum emitters and plasmonic
nanoparticles is a central issue in nanophotonics. However, few studies have reported on …

Chirality is a fundamental asymmetry phenomenon, with chiral optical elements exhibiting
asymmetric response in reflection or absorption of circularly polarized light. Recent …

The manipulation of coupled quantum excitations is of fundamental importance in realizing
novel photonic and optoelectronic devices. We use electroluminescence to probe plasmon …

Atomically thin MoSe 2 layers, as a core member of the transition metal dichalcogenides
(TMDs) family, benefit from their appealing properties, including tunable band gaps, high …

Exciton–plasmon coupling between two-dimensional transition metal dichalcogenides and
metallic nanostructures has attracted much attention as a means of creating room …

The strong interaction between light and matter is one of the current research hotspots in the
field of nanophotonics, and provides a suitable platform for fundamental physics research …

Monolayers of transition metal dichalcogenides (TMDCs) are direct-gap semiconductors
with strong light–matter interactions featuring tightly bound excitons, while plasmonic …