Polaritonic chemistry exploits strong light–matter coupling between molecules and confined
electromagnetic field modes to enable new chemical reactivities. In systems displaying this …

In the past decade, much theoretical research has focused on studying the strong coupling
between organic molecules (or quantum emitters, in general) and light modes. The …

Strong light-matter coupling provides the means to challenge the traditional rules of
chemistry. In particular, an energy inversion of singlet and triplet excited states would be …

Strong light-matter interaction leads to the formation of hybrid polariton states and alters the
photophysical dynamics of organic materials and biological systems without modifying their …

We present a microscopic theory for nonlinear optical spectroscopy of N molecules in an
optical cavity. Using the Heisenberg-Langevin equation, an analytical expression is derived …

Strong coupling between molecules and quantized fields has emerged as an effective
methodology to engineer molecular properties. New hybrid states are formed when …

Understanding light propagation and attenuation in cavities is limited by lack of applicable
light sensing technologies. Here we demonstrate the use of light-sensitive metastable states …

We consider bioinspired ring systems as photovoltaic circuits to explore the advantage of
“optical ratcheting,” a process whereby the arrangement of coupled optical dipoles enables …

Enlarging exciton coherence lengths in molecular aggregates is critical for enhancing the
collective optical and transport properties of molecular thin film nanostructures or devices …

Exciton–polaritons are quasiparticles that are formed by strong interactions between light
and electronic transitions of matter. Polariton states exhibit the characteristics of both …