Routing Entanglement in the Quantum Internet: Difference between revisions

Updated the terminology to match/agree with the newest protocol page I'm doing (I will finish the new one in the next couple of days)
(Added the introduction, a small edit in the protocol description, the Properties and Further Information section.)
(Updated the terminology to match/agree with the newest protocol page I'm doing (I will finish the new one in the next couple of days))
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==Assumptions==
==Assumptions==
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<!-- It describes the setting in which the protocol will be successful. -->
* Each network repeater node equipped with:
* Each quantum repeater node is equipped with:
** Quantum memories that can hold a qubit perfectly for some predefined time.
** Quantum memories that can hold a qubit perfectly for some predefined time.
** Entanglement sources.
** Entanglement sources.
** Ability to perform Bell state measurements between any pair of locally-held qubits.
** Ability to perform Bell state measurements between any pair of locally-held qubits.
** Classical computing resources and communication interface.
** Classical computing resources and communication interface.
* Each network repeater node is aware of the overall network topology, as well as the locations of the <math>K</math> Source-Destination pairs.
* Each quantum repeater node is aware of the overall network topology, as well as the locations of the <math>K</math> Source-Destination pairs.


==Outline==
==Outline==
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<!-- A non-mathematical detailed outline which provides a rough idea of the concerned protocol -->
In [https://www.nature.com/articles/s41534-019-0139-x.pdf 1] they develop and analyze routing protocols for generating maximally entangled qubits (ebits) simultaneously between single or multiple pairs of senders and receivers in a quantum network by exploiting multiple paths in the network. They introduce protocols for quantum repeater nodes in the following scenarios:  
In [https://www.nature.com/articles/s41534-019-0139-x.pdf (1)] they develop and analyze routing protocols for generating maximally entangled qubits (ebits) simultaneously between single or multiple pairs of senders and receivers in a quantum network by exploiting multiple paths in the network. They introduce protocols for quantum repeater nodes in the following scenarios:  
* Multipath routing of a '''single''' entanglement flow:
* Multipath routing of a '''single''' entanglement flow:
** Considering nodes with global link-state information (the state of every link is known to every repeater in the network and can be used).
** Considering nodes with global link-state information (the state of every link is known to every repeater in the network and can be used).
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