Tensor network simulation of polaron-polaritons in organic microcavities - Archive ouverte HAL Accéder directement au contenu
Article Dans Une Revue Physical Review B: Condensed Matter and Materials Physics (1998-2015) Année : 2018

Tensor network simulation of polaron-polaritons in organic microcavities

Résumé

In the regime of strong coupling between molecular excitons and confined optical modes, the intramolecular degrees of freedom are profoundly affected, leading to a reduced vibrational dressing of polaritons compared to bare electronically excited states. However, existing models only describe a single vibrational mode in each molecule, while actual molecules possess a large number of vibrational degrees of freedom and additionally interact with a continuous bath of phononic modes in the host medium in typical experiments. In this work, we investigate a small ensemble of molecules with an arbitrary number of vibrational degrees of freedom under strong coupling to a microcavity mode. We demonstrate that reduced vibrational dressing is still present in this case, and show that the influence of the phononic environment on most electronic and photonic observables in the lowest excited state can be predicted from just two collective parameters of the vibrational modes. Besides, we explore vibrational features that can be addressed exclusively by our extended model and could be experimentally tested. Our findings indicate that vibronic coupling is more efficiently suppressed for environments characterized by low-frequency (sub-Ohmic) modes.
Fichier principal
Vignette du fichier
PhysRevB.98.165416.pdf (1.91 Mo) Télécharger le fichier
Origine : Fichiers éditeurs autorisés sur une archive ouverte
Loading...

Dates et versions

hal-02372598 , version 1 (20-11-2019)

Identifiants

Citer

Javier Del Pino, Florian A. Y. N. Schröder, Alex Chin, Johannes Feist, Francisco J. Garcia-Vidal. Tensor network simulation of polaron-polaritons in organic microcavities. Physical Review B: Condensed Matter and Materials Physics (1998-2015), 2018, 98 (16), ⟨10.1103/PhysRevB.98.165416⟩. ⟨hal-02372598⟩
57 Consultations
108 Téléchargements

Altmetric

Partager

Gmail Facebook X LinkedIn More