2013•The Rochester Conferences on Coherence and Quantum Optics and the Quantum Information and Measurement meetingRequires access

Quantum Coherent Networks

Gerhard Rempe

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Abstract

Cavity quantum electrodynamics with single stationary atoms and single flying photons is employed to realize a first quantum-coherent network featuring long-distance quantum-state transfer, controlled atom-atom entanglement and efficient atomic-state teleportation.

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Cavity quantum electrodynamics with single stationary atoms and single flying photons is employed to realize a first quantum-coherent network featuring long-distance quantum-state transfer, controlled atom-atom entanglement and efficient atomic-state teleportation.

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Available abstract

Cavity quantum electrodynamics with single stationary atoms and single flying photons is employed to realize a first quantum-coherent network featuring long-distance quantum-state transfer, controlled atom-atom entanglement and efficient atomic-state teleportation.

Key concepts: Quantum network, Quantum teleportation, Cavity quantum electrodynamics, Quantum entanglement, Physics, Photon, Quantum channel, Teleportation

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