When molecules are coupled to an optical cavity, new light–matter hybrid states, so-called
polaritons, are formed due to quantum light–matter interactions. With the experimental …

The interaction between molecular electronic transitions and electromagnetic fields can be
enlarged to the point where distinct hybrid light–matter states, polaritons, emerge. The …

Transport of excitons and charge carriers in molecular systems can be enhanced by
coherent coupling to photons, giving rise to the formation of hybrid excitations known as …

Molecules are the building blocks of all of nature's functional components, serving as the
machinery that captures, stores and releases energy or converts it into useful work …

Exciton transport can be enhanced in the strong coupling regime where excitons hybridize
with confined light modes to form polaritons. Because polaritons have group velocity, their …

We develop a microscopic theory for the multimode polariton dispersion in materials
coupled to cavity radiation modes. Starting from a microscopic light–matter Hamiltonian, we …

Making and using polaritonic states (ie, hybrid electron-photon states) for chemical
applications has recently become one of the most prominent and active fields that connects …

Strong light–matter coupling offers a way to tailor the optoelectronic properties of materials.
Energy transfer between strongly coupled donor–acceptor pairs shows remarkable …

Molecular polaritons, the hybridization of electronic states in molecules with photonic
excitation inside a cavity, play an important role in fundamental quantum science and …

Recent experiments on the strong light‐matter coupling between an organic semiconductor
and a plasmonic mode propose an unconventional way to enhance conductivity. Herein, it is …