New IPv6 Extension Headers are proposed to enable quantum teleportation, quantum routing (path superposition), and superpositions of quantum processes within the IP layer of the Quantum Internet.
Error Filtration and Entanglement Purification for Quantum Communication
4 Pith papers cite this work, alongside 63 external citations. Polarity classification is still indexing.
4
Pith papers citing it
63
external citations · OpenAlex
citation-role summary
background 1
citation-polarity summary
roles
background 1polarities
background 1representative citing papers
An extension of the central limit theorem to bosonic quantum channels recovers the classical and state versions while supplying uncertainty relations and energy-constrained capacity lower bounds for linear bosonic channels.
Proposes a heterogeneous quantum repeater network architecture using recursive designs and RuleSets with a new bridging building block, but states that full-scale resource trade-off analysis remains future work.
Monte Carlo simulations map fidelity gains up to 0.07 and yield losses up to 0.55 for one round of DEJMPS purification across a grid of amplitude-damping and dephasing noise strengths in entangled photon systems.
citing papers explorer
-
Packet Routing for the Quantum Internet
New IPv6 Extension Headers are proposed to enable quantum teleportation, quantum routing (path superposition), and superpositions of quantum processes within the IP layer of the Quantum Internet.
-
Central Limit Theorem for Bosonic Quantum Channels
An extension of the central limit theorem to bosonic quantum channels recovers the classical and state versions while supplying uncertainty relations and energy-constrained capacity lower bounds for linear bosonic channels.
-
Resource Management in Heterogeneous Quantum Repeater Networks
Proposes a heterogeneous quantum repeater network architecture using recursive designs and RuleSets with a new bridging building block, but states that full-scale resource trade-off analysis remains future work.
-
Effectiveness of the DEJMPS purification protocol in noisy entangled photon systems, a Monte Carlo simulation
Monte Carlo simulations map fidelity gains up to 0.07 and yield losses up to 0.55 for one round of DEJMPS purification across a grid of amplitude-damping and dephasing noise strengths in entangled photon systems.