An enhanced CV-MDI-QKD scheme correlates data and ancilla noise via symplectic transforms within GKP error correction to achieve fault-tolerant suppression of loss and operation errors, with numerical composable security shown for wired and wireless links under Gaussian attacks.
Title resolution pending
4 Pith papers cite this work. Polarity classification is still indexing.
fields
quant-ph 4representative citing papers
A QFC hub achieves 2 THz pump tunability via a dispersion sweet spot in PPLN and distributes polarization-encoded single photons across 16 ITU-T DWDM channels while preserving quantum information.
QuNetQFL is a quantum federated learning protocol using distributed quantum keys for secure aggregation, experimentally validated on a four-client quantum network with scalability simulations to 200 clients and applications to quantum datasets and hybrid language models.
Coupling storage qubits to driven qubits in chiral waveguide QED tailors the steady state for higher and more loss-resilient remote entanglement between the storage qubits.
citing papers explorer
-
Fault-tolerant measurement-device-independent quantum key distribution with noisy non-Gaussian error correction
An enhanced CV-MDI-QKD scheme correlates data and ancilla noise via symplectic transforms within GKP error correction to achieve fault-tolerant suppression of loss and operation errors, with numerical composable security shown for wired and wireless links under Gaussian attacks.
-
A quantum frequency conversion hub interfacing with DWDM networks
A QFC hub achieves 2 THz pump tunability via a dispersion sweet spot in PPLN and distributes polarization-encoded single photons across 16 ITU-T DWDM channels while preserving quantum information.
-
Experimentally validated quantum-secure federated learning over a multi-user quantum network
QuNetQFL is a quantum federated learning protocol using distributed quantum keys for secure aggregation, experimentally validated on a four-client quantum network with scalability simulations to 200 clients and applications to quantum datasets and hybrid language models.
-
Loss resilience of driven-dissipative remote entanglement in chiral waveguide quantum electrodynamics
Coupling storage qubits to driven qubits in chiral waveguide QED tailors the steady state for higher and more loss-resilient remote entanglement between the storage qubits.