A Study of Teleportation and Super Dense Coding capacity in Remote Entanglement Distribution
arXiv:1210.1312 · doi:10.1140/epjd/e2013-30746-9
Abstract
In this work we consider a quantum network consisting of nodes and entangled states connecting the nodes. In evrey node there is a single player. The players at the intermediate nodes carry out measurements to produce an entangled state between the initial and final node. Here we address the problem that how much classical as well as quantum information can be sent from initial node to final node. In this context, we present strong theorems along with proosf, which state that how the teleportation capability of this remotely prepared state is linked up with the fidelities of teleportation of the resource states. Similarly, we analyze the super dense coding capacity of this remotely prepared state in terms of the capacities of the resource entangled states. However, we first obtain the relations involving the amount of entanglement of the resource states with the final state in terms of two different measures of entanglement namely concurrence and entanglement entropy. These relations are quite similar to the bounds obtained in reference \cite{Gour,Gour1}. These results involving the teleportation fidelities and super dense coding capacities have a tremendous future application in the context of determining the amount of quantum and classical information can be sent from a given node to a desired node in a quantum network (QNet).
2 figures and 10 pages, Accepted for Publication in Eur. Phys. J. D
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- A note on superposition of two unknown states using Deutsch CTC model
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- Three Party Quantum Networks Created by Quantum Cloning
- Broadcasting of NPT Entanglement in Two Qutrit Systems
- Teleportation Fidelity of Binary Tree Quantum Repeater Networks
- Revocation and Reconstruction of Shared Quantum States
- Any Two Qubit State Has Non Zero Quantum Discord Under Global Unitary Operations
- Revocation and Reconstruction of Shared Quantum States