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Using the Path Computation Element to Enhance SDN for Elastic Optical Networks (EON)

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Using the Path Computation Element to Enhance SDN for Elastic Optical Networks (EON). / King, Daniel; López Álvarez, Victor; Gonzalez de Dios, Oscar.
iPOP: IP Over Optical. Japan, 2013.

Research output: Contribution in Book/Report/Proceedings - With ISBN/ISSNConference contribution/Paperpeer-review

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APA

Vancouver

King D, López Álvarez V, Gonzalez de Dios O. Using the Path Computation Element to Enhance SDN for Elastic Optical Networks (EON). In iPOP: IP Over Optical. Japan. 2013

Author

King, Daniel ; López Álvarez, Victor ; Gonzalez de Dios, Oscar. / Using the Path Computation Element to Enhance SDN for Elastic Optical Networks (EON). iPOP: IP Over Optical. Japan, 2013.

Bibtex

@inproceedings{5f55fb0f93f04f3abc5f9fbc28c1e6bf,
title = "Using the Path Computation Element to Enhance SDN for Elastic Optical Networks (EON)",
abstract = "Elastic Optical Networks (EON) [1] provide scalable, flexible and spectrum-efficient optical transport, which may be used for a variety of high growth applications. These applications include large scale content distribution and data center inter-connectivity. EONs place a set of new requirements on the operation of the network, where existing network operation methods are simply not sufficiently capable. These include, on-demand and application-specific reservation of flexible optical network connectivity, reliability, resources (such as bandwidth) and policy.Software Defined Networking (SDN) and network programmability offer the ability to direct application service requests towards the optical network. By combining the Path Computation Element (PCE), an application service request can utilize a well-defined set of path computation and traffic engineering (TE) features. This functionality can be categorized as Application-based Network Operations (ABNO) [1].This presentation describes how SDN and PCE can be applied to enhance an EON [3]. It demonstrates how these technologies may be combined to solve a critical EON use case, Global Concurrent Optimization (GCO) [4] of network resources. We will detail how the ABNO key components and procedures may be used, including: policy control, resource (spectrum frequency) gathering, path computation and optimization of objective functions, traffic engineering and scheduling. Finally we will summarize the quantitative benefits of the ABNO-enabled GCO operation, in terms of capabilities, network utilization and operational efficiency.",
keywords = "PCE, SDN, Optical Communication, Control Plane, OSS",
author = "Daniel King and {L{\'o}pez {\'A}lvarez}, Victor and {Gonzalez de Dios}, Oscar",
year = "2013",
month = jan,
day = "31",
language = "English",
booktitle = "iPOP",

}

RIS

TY - GEN

T1 - Using the Path Computation Element to Enhance SDN for Elastic Optical Networks (EON)

AU - King, Daniel

AU - López Álvarez, Victor

AU - Gonzalez de Dios, Oscar

PY - 2013/1/31

Y1 - 2013/1/31

N2 - Elastic Optical Networks (EON) [1] provide scalable, flexible and spectrum-efficient optical transport, which may be used for a variety of high growth applications. These applications include large scale content distribution and data center inter-connectivity. EONs place a set of new requirements on the operation of the network, where existing network operation methods are simply not sufficiently capable. These include, on-demand and application-specific reservation of flexible optical network connectivity, reliability, resources (such as bandwidth) and policy.Software Defined Networking (SDN) and network programmability offer the ability to direct application service requests towards the optical network. By combining the Path Computation Element (PCE), an application service request can utilize a well-defined set of path computation and traffic engineering (TE) features. This functionality can be categorized as Application-based Network Operations (ABNO) [1].This presentation describes how SDN and PCE can be applied to enhance an EON [3]. It demonstrates how these technologies may be combined to solve a critical EON use case, Global Concurrent Optimization (GCO) [4] of network resources. We will detail how the ABNO key components and procedures may be used, including: policy control, resource (spectrum frequency) gathering, path computation and optimization of objective functions, traffic engineering and scheduling. Finally we will summarize the quantitative benefits of the ABNO-enabled GCO operation, in terms of capabilities, network utilization and operational efficiency.

AB - Elastic Optical Networks (EON) [1] provide scalable, flexible and spectrum-efficient optical transport, which may be used for a variety of high growth applications. These applications include large scale content distribution and data center inter-connectivity. EONs place a set of new requirements on the operation of the network, where existing network operation methods are simply not sufficiently capable. These include, on-demand and application-specific reservation of flexible optical network connectivity, reliability, resources (such as bandwidth) and policy.Software Defined Networking (SDN) and network programmability offer the ability to direct application service requests towards the optical network. By combining the Path Computation Element (PCE), an application service request can utilize a well-defined set of path computation and traffic engineering (TE) features. This functionality can be categorized as Application-based Network Operations (ABNO) [1].This presentation describes how SDN and PCE can be applied to enhance an EON [3]. It demonstrates how these technologies may be combined to solve a critical EON use case, Global Concurrent Optimization (GCO) [4] of network resources. We will detail how the ABNO key components and procedures may be used, including: policy control, resource (spectrum frequency) gathering, path computation and optimization of objective functions, traffic engineering and scheduling. Finally we will summarize the quantitative benefits of the ABNO-enabled GCO operation, in terms of capabilities, network utilization and operational efficiency.

KW - PCE

KW - SDN

KW - Optical Communication

KW - Control Plane

KW - OSS

M3 - Conference contribution/Paper

BT - iPOP

CY - Japan

ER -