We report on the realization and verification of quantum entanglement between a nitrogen-vacancy electron spin qubit and a telecom-band photonic qubit. First we generate entanglement between the spin qubit and a 637 nm photonic time-bin qubit, followed by photonic quantum frequency conversion that transfers the entanglement to a 1588 nm photon. We characterize the resulting state by correlation measurements in different bases and find a lower bound to the Bell state fidelity of ≥0.77±0.03. This result presents an important step towards extending quantum networks via optical fiber infrastructure.BUS/GeneralQID/Hanson LabBusiness DevelopmentQN/Hanson La
In a quantum network involving multiple communicating parties, an important goal is to establish hig...
Quantum entanglement between distant qubits is an important feature of quantum networks. Distributio...
Quantum networks can interconnect remote quantum information processors, allowing interaction betwee...
We report on the realization and verification of quantum entanglement between a nitrogen-vacancy ele...
We report on the realization and verification of quantum entanglement between a nitrogen-vacancy ele...
We report on the realization and verification of quantum entanglement between a nitrogen-vacancy ele...
Practical quantum communication between remote quantum memories rely on single photons at telecom wa...
We report on the conversion to telecommunication wavelengths of single photons emitted by a nitrogen...
Practical quantum communication between remote quantum memories rely on single photons at telecom wa...
We report on the conversion to telecommunication wavelengths of single photons emitted by a nitrogen...
Long-distance quantum teleportation and quantum repeater technologies require entanglement between a...
At the heart of quantum physics lies the principle of superposition, and at the heart of information...
Quantum networks can interconnect remote quantum information processors, allowing interaction betwee...
Long-distance quantum teleportation and quantum repeater technologies require entanglement between a...
Practical quantum communication between remote quantum memories rely on single photons at telecom wa...
In a quantum network involving multiple communicating parties, an important goal is to establish hig...
Quantum entanglement between distant qubits is an important feature of quantum networks. Distributio...
Quantum networks can interconnect remote quantum information processors, allowing interaction betwee...
We report on the realization and verification of quantum entanglement between a nitrogen-vacancy ele...
We report on the realization and verification of quantum entanglement between a nitrogen-vacancy ele...
We report on the realization and verification of quantum entanglement between a nitrogen-vacancy ele...
Practical quantum communication between remote quantum memories rely on single photons at telecom wa...
We report on the conversion to telecommunication wavelengths of single photons emitted by a nitrogen...
Practical quantum communication between remote quantum memories rely on single photons at telecom wa...
We report on the conversion to telecommunication wavelengths of single photons emitted by a nitrogen...
Long-distance quantum teleportation and quantum repeater technologies require entanglement between a...
At the heart of quantum physics lies the principle of superposition, and at the heart of information...
Quantum networks can interconnect remote quantum information processors, allowing interaction betwee...
Long-distance quantum teleportation and quantum repeater technologies require entanglement between a...
Practical quantum communication between remote quantum memories rely on single photons at telecom wa...
In a quantum network involving multiple communicating parties, an important goal is to establish hig...
Quantum entanglement between distant qubits is an important feature of quantum networks. Distributio...
Quantum networks can interconnect remote quantum information processors, allowing interaction betwee...