Molecular polaritons result from light-matter coupling between optical resonances and
molecular electronic or vibrational transitions. When the coupling is strong enough, new …

The nanoscale confinement and coupling of electromagnetic radiation into plexcitonic
modes has drawn immense interest because of the innovative possibilities for their …

This is a tutorial-style introduction to the field of molecular polaritons. We describe the basic
physical principles and consequences of strong light–matter coupling common to molecular …

Photoplasmonic platforms are being demonstrated as excellent means for bridging
nanochemistry and biosensing approaches at advanced interfaces, thereby augmenting the …

This review presents the theory, configurations, and various applications of plasmonics in a
variety of surface plasmon–based devices. It describes how light waves travel along the …

The concentration and manipulation of light in the nanoscale range are fundamental to
nanophotonic research. Plasmonic nanoparticles can localize electromagnetic waves within …

Chiral plexcitons, produced by the strong interaction between plasmonic nanocavities and
chiral molecules, can provide a promising direction for controlling chiroptical responses on …

Understanding the unique characteristics of plexcitons, hybridized states resulting from the
strong coupling between plasmons and excitons, is vital for both fundamental studies and …

In this review, we focus on the summary of catalytic reaction driven by surface plasmons and
plexciton, where the plexciton is the interaction between plasmon and exciton. We first …

Polaritonic modes in low-dimensional materials enable strong light–matter interactions and
the manipulation of light on nanometer length scales. Very recently, a new class of …