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Bulletin of the American Physical Society

Directional photon emission from entangled atomic ensembles

Minho Kwon, Matt Ebert, Thad G Walker, Mark E. Saffman

Published Jun 9, 2015• 0 citations
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The deterministic generation of collimated single and entangled photons is of crucial importance in several applications in quantum information. Most of the methods require the use of high-Q cavities, something which is very demanding in practice. In this work we propose a new method to produce single-and entangled-photons in a deterministic way which does not require the use of cavities. It relies on the collective light emission in some particular directions as a consequence of the presence of entanglement in an atomic ensemble. This light emission is triggered by a laser pulse, and therefore our scheme is deterministic. Furthermore, it allows one to produce a variety of photonic entangled states by first preparing certain classes of atomic entangled states.
We report on the coherent quantum state transfer from a two-level atomic system to a single photon. Entanglement between a single photon (signal) and a two-component ensemble of cold rubidium atoms is used to project the quantum memory element (the atomic ensemble) onto any desired state by measuring the signal in a suitable basis. The atomic qubit is read out by stimulating directional emission of a single photon (idler) from the (entangled) collective state of the ensemble. Faithful atomic memory preparation and readout are verified by the observed correlations between the signal and the idler photons. These results enable implementation of distributed quantum networking.