Dense dipole-dipole-coupled two-level systems in a thermal bath

Abstract

The quantum dynamics of a dense and dipole-dipole coupled ensemble of two-level emitters interacting via their environmental thermostat is investigated. The static dipole-dipole interaction strengths are being considered strong enough but smaller than the transition frequency. Therefore, the established thermal equilibrium of ensemble's quantum dynamics is described with respect to the dipole-dipole coupling strengths. We have demonstrated the quantum nature of the spontaneously scattered light field in this process for weaker thermal baths as well as non-negligible dipole-dipole couplings compared to the emitter's transition frequency. Furthermore, the collectively emitted photon intensity suppresses or enhances depending on the environmental thermal baths intensities.

6 pages, 4 figures

References in corpus (12)

• Superabsorption in an organic microcavity: towards a quantum battery
• Coherent dipole-dipole coupling between two single atoms at a Förster resonance
• Many-body Signatures of Collective Decay in Atomic Chains
• A non-equilibrium superradiant phase transition in free space
• Quantum-Enhanced Heat Engine Based on Superabsorption
• A photonic quantum engine driven by superradiance
• Dynamic population of multiexcitation subradiant states in incoherently excited atomic arrays
• Superradiant many-qubit absorption refrigerator
• Nanoscale continuous quantum light sources based on driven dipole emitter arrays
• Performance boost of a collective qutrit refrigerator
• Observation of Blackbody Radiation Enhanced Superradiance in ultracold Rydberg Gases
• Performance of the collective three-level quantum thermal engine