Resonance Retrieval of Stored Coherence in a Radiofrequency-optical Double Resonance Experiment
arXiv:1510.02672 · doi:10.1103/PhysRevA.92.063802
Abstract
We study the storage of coherences in atomic rubidium vapor with a three-level coupling scheme with two ground states and one electronically excited state driven by one optical (control) and one radiofrequency field. We initially store an atomic ground state coherence in the system. When retrieving the atomic coherence with a subsequent optical pulse, a second (signal) optical beam is created whose difference frequency to the control field is found to be determined by the atomic ground states Raman transition frequency.
References in corpus (11)
- Quantum memory for squeezed light
- Storage and Retrieval of a Squeezed Vacuum
- Mapping broadband single-photon wavepackets into an atomic memory
- Modematching an optical quantum memory
- Multimode Memories in Atomic Ensembles
- Photon echoes generated by reversing magnetic field gradients in a rubidium vapour
- On decoherence of electromagnetically-induced transparency in atomic vapor
- Resonance beating of light stored using atomic spinor polaritons
- Adiabatic frequency conversion of quantum optical information in atomic vapor
- Frequency matching in light storage spectroscopy of atomic Raman transitions
- Preparation and probing of the ground state coherence in Rubidium