Ternary quantum eraser protocol with 120° polarization states in three-photon randomized transmissions bounds eavesdropper success at 54% against individual attacks.
Title resolution pending
5 Pith papers cite this work. Polarity classification is still indexing.
5
Pith papers citing it
fields
quant-ph 5verdicts
UNVERDICTED 5representative citing papers
Spanning-tree packing yields an optimal protocol for conference key generation from pairwise QKD links in arbitrary quantum network topologies.
Click timing in a gated single-photon detector shifts strongly with pulse energy, enabling attacks that toggle detections between adjacent time slots in QKD.
Orthogonal state attacks including a muted attack, experimentally verified with a 1 GHz SPAD, let an eavesdropper control QKD receiver detection responses and learn nearly all keys without intercept-resend operations.
High-dimensional encoding in entanglement-based QKD achieves optimal efficiency at finite photon pair production rates, boosting secret key rates by up to ten times compared to single-qubit approaches in low-signal satellite scenarios.
citing papers explorer
-
Ternary Quantum Eraser Cryptography
Ternary quantum eraser protocol with 120° polarization states in three-photon randomized transmissions bounds eavesdropper success at 54% against individual attacks.
-
Spanning-tree-packing protocol for conference key propagation in quantum networks
Spanning-tree packing yields an optimal protocol for conference key generation from pairwise QKD links in arbitrary quantum network topologies.
-
Energy-time attack on detectors in quantum key distribution
Click timing in a gated single-photon detector shifts strongly with pulse energy, enabling attacks that toggle detections between adjacent time slots in QKD.
-
Security analysis of orthogonal state attack on a high-speed quantum key distribution system
Orthogonal state attacks including a muted attack, experimentally verified with a 1 GHz SPAD, let an eavesdropper control QKD receiver detection responses and learn nearly all keys without intercept-resend operations.
-
Photon Efficiency of High-Dimensional Quantum Key Distribution
High-dimensional encoding in entanglement-based QKD achieves optimal efficiency at finite photon pair production rates, boosting secret key rates by up to ten times compared to single-qubit approaches in low-signal satellite scenarios.