-
Henrike M. Müller-Werkmeister (Institute for Chemistry, University of Potsdam, Potsdam, Germany)05/05/2026, 09:00Invited Talk
Vibrational strong coupling, i.e. the formation of polaritons between the vacuum field in Fabry Perot cavities and molecular vibrations, is discussed to allow tuning and steering chemical reactivity. However, mechanistic insights into the vibrational dynamics of the formed vibropolaritons, specifically from experiments, are still limited and not yet available for organic molecules, which are...
Go to contribution page -
Stefano Corni05/05/2026, 09:30Invited Talk
Localized surface plasmons, collective excitations of conduction electrons in nanostructures, are associated to enhanced and spatially localized electromagnetic fields that can strongly couple the plasmonic excitations with the electronic ones of nearby molecules. The resulting hybrid excitations, called plexcitons, share with polaritons the capability of potentially modifying the molecular...
Go to contribution page -
Prof. Johannes Feist (Universidad Autónoma de Madrid)05/05/2026, 10:45Invited Talk
I will discuss the method we have developed over the last years to correctly describe strong light-matter coupling in arbitrary nanophotonic structures. This method obtains a quantum-optics-like description using a few discrete modes while still accounting for the full complexity of light propagation and emission. As a natural consequence, this method yields quantum optical models consisting...
Go to contribution page -
Carlos Bustamante (Max Planck Institute for the Structure and Dynamics of Matter)05/05/2026, 11:15Contributed Talk
Polaritonic chemistry involves a vast number of coupled electronic, nuclear, and photonic degrees of freedom, which limits the applicability of fully ab initio approaches. Here, we present a semiclassical simulation framework that self-consistently combines numerical solutions of Maxwell's equations for realistic optical cavities with quantum molecular dynamics at the time-dependent...
Go to contribution page -
Mark Kamper Svendsen (Niels Bohr Institute)Invited Talk
In this talk, I will present our work on the quantitative description of the cavity for strongly coupled light-matter systems.
I will discuss how Macroscopic Quantum Electrodynamics (MQED) can be combined with high-level quantum chemistry methods for molecular systems. I will also explore how we are using these methods to develop new quantum optomechanical devices. Specifically, I will...
Go to contribution page
Choose timezone
Your profile timezone: