On collective Rabi splitting in nanolasers and nano-LEDs
arXiv:1810.06098 · doi:10.1364/OL.44.001415
Abstract
We analytically calculate the optical emission spectrum of nanolasers and nano-LEDs based on a model of many incoherently pumped two-level emitters in a cavity. At low pump rates we find two peaks in the spectrum for large coupling strengths and numbers of emitters. We interpret the double-peaked spectrum as a signature of collective Rabi splitting, and discuss the difference between the splitting of the spectrum and the existence of two eigenmodes. We show that an LED will never exhibit a split spectrum, even though it can have distinct eigenmodes. For systems where the splitting is possible we show that the two peaks merge into a single one when the pump rate is increased. Finally, we compute the linewidth of the systems, and discuss the influence of inter-emitter correlations on the lineshape.
References in corpus (7)
- Observation of the Vacuum-Rabi Spectrum for One Trapped Atom
- Laser oscillation in a strongly coupled single quantum dot-nanocavity system
- Strong-coupling of quantum dots in microcavities
- Luminescence Spectra of Quantum Dots in Microcavities. II. Fermions
- Luminescence Spectra of Quantum Dots in Microcavities. I. Bosons
- Dynamical properties of nanolasers based on few discrete emitters
- Strong light-matter coupling in the presence of lasing
Cited by in corpus (11)
- Efficient stochastic simulation of rate equations and photon statistics of nanolasers
- Quantum Langevin approach for superradiant nanolasers
- Gain-dependent Purcell enhancement, breakdown of Einstein's relations and superradiance in nanolasers
- Anomalous spontaneous emission dynamics at chiral exceptional points
- A quantum model of lasing without inversion
- Single photon optical bistability
- Oscillator laser model
- Spontaneous emission, collective phenomena and the efficiency of plasmon-stimulated photo-excitation
- Perturbation approach in Heisenberg equations for lasers
- Population fluctuation mechanism of the super-thermal photon statistic of LEDs with collective effects
- Increased output of superradiant light-emitting diodes due to population fluctuations