Deterministic Coupling of Single Quantum Dots to Single Nanocavity Modes
University of California, Santa Barbara · ETH Zurich
Abstract
We demonstrate a deterministic approach to the implementation of solid-state cavity quantum electrodynamics (QED) systems based on a precise spatial and spectral overlap between a single self-assembled quantum dot and a photonic crystal membrane nanocavity. By fine-tuning nanocavity modes with a high quality factor into resonance with any given quantum dot exciton, we observed clear signatures of cavity QED (such as the Purcell effect) in all fabricated structures. This approach removes the major hindrances that had limited the application of solid-state cavity QED and enables the realization of experiments previously proposed in the context of quantum information processing.
Citation impact
- FWCI
- 59.37
- Percentile
- 100%
- References
- 19
Authors
7- ABA. BadolatoCorresponding
University of California, Santa Barbara, ETH Zurich
- KHK. HennessyCorresponding
University of California, Santa Barbara, ETH Zurich
- MAMete Atatüre
University of California, Santa Barbara, ETH Zurich
- JDJan Dreiser
University of California, Santa Barbara, ETH Zurich
- ELEvelyn L. Hu
University of California, Santa Barbara, ETH Zurich
Topics & keywords
- Cavity quantum electrodynamics
- Quantum dot
- Physics
- Coupling (piping)
- Photonic crystal
- Realization (probability)
- Context (archaeology)
- Exciton