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FIELD TRAIL · Quantum networks

From entanglement to a quantum network

Bell tests, teleportation and connected quantum systems. Four sourced contributions to read in sequence.

0 of 4 contribution links opened · stored on this device
  1. STOP 1 OF 4 · Test the correlations

    Alain Aspect

    1982 · Bell tests with changing measurement settings

    With Jean Dalibard and Gérard Roger, Aspect published a Bell-inequality experiment using time-varying analyzers. The work sharpened experimental tests of entanglement and the distinction between quantum correlations and local classical explanations. It was part of a sequence of experiments, with explicit experimental limitations.

    Coauthored experiment by Alain Aspect, Jean Dalibard and Gérard Roger.

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  2. STOP 2 OF 4 · Use shared entanglement

    Charles H. Bennett

    1993 · Quantum teleportation

    Bennett, Brassard and four coauthors proposed transferring an unknown quantum state using shared entanglement, a measurement and classical communication. The protocol established a reusable quantum-information primitive and does not permit faster-than-light signaling or the copying of an arbitrary unknown state.

    Coauthored protocol by Charles H. Bennett, Gilles Brassard, Claude Crépeau, Richard Jozsa, Asher Peres and William K. Wootters.

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  3. STOP 3 OF 4 · Connect multiple nodes

    Ronald Hanson

    2021 · A network with multiple quantum nodes

    Hanson’s QuTech biography records his group’s demonstration of entanglement in a multi-node quantum network. This extended the laboratory’s work from individual links toward coordinated operations among connected quantum processors.

    Research-group contribution documented by QuTech; multi-node entanglement is attributed to the team.

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  4. STOP 4 OF 4 · Run network applications

    Stephanie Wehner

    2025 · QNodeOS for quantum network applications

    Wehner co-authored the paper introducing QNodeOS, an operating-system architecture for running high-level applications on quantum network nodes. The team demonstrated delegated computation between diamond-based nodes and a driver for a trapped-ion node, separating application software from hardware-specific control.

    Co-author of the paper reporting QNodeOS and its collaborative demonstrations.

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