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 …

Coupling molecules to the quantized radiation field inside an optical cavity creates a set of
new photon–matter hybrid states called polariton states. We combine electronic structure …

Experiments have demonstrated that the strong light-matter coupling in polaritonic
microcavities significantly enhances transport. Motivated by these experiments, we have …

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 …

We develop an accurate and numerically efficient non-adiabatic path-integral approach to
simulate the non-linear spectroscopy of exciton–polariton systems. This approach is based …

Exciton–polaritons─ hybrid exciton–photon quasi-particles─ have enabled exciting long-
range coherent transport by taking advantage of the properties of their photonic component …

We present a comprehensive study of the exciton wave packet evolution in disordered
lossless polaritonic wires. Our simulations reveal signatures of ballistic, diffusive, and …

We study the interplay between disorder and light-matter coupling by considering a
disordered one-dimensional chain of lossy dipoles coupled to a multimode optical cavity …

Chemical reactions and energy transport phenomena have been experimentally reported to
be significantly affected by strong light–matter interactions and vibrational polariton …

The observation that materials can change their properties when placed inside or near an
optical resonator has sparked a fervid interest in understanding the effects of strong light …