2009-03-26, 74 th IETF, San Francisco, U.S.A., March 2009 1 draft-seno-ccamp-wson-impairment-compensate-cntl-00.txt Issued March 2 nd, 2009 2009-03-26,

Slides:



Advertisements
Similar presentations
Doc.: IEEE xxx Submission May 10-14, 2004 Alan Carlton, Interdigital CommunicationsSlide 1 Defining Layer 2.5 Alan Carlton Interdigital Communications.
Advertisements

CCAMP WG, IETF 80th, Prague, Czech Republic draft-gonzalezdedios-subwavelength-framework-00 Framework for GMPLS and path computation support of sub-wavelength.
Page th IETF – Stockholm, Sweden, July 2009 WSON Signal Characteristics and Network Element Compatibility Constraints for GMPLS Greg
Page th IETF – San Francisco, CA, March 2009 Framework for GMPLS and PCE Control of Wavelength Switched Optical Networks (WSON) Greg
Page th IETF – San Francisco, CA, March 2009 Information Model for Impaired Optical Path Validation Greg Grotto.
76th IETF – Hiroshima, Japan, November 2009 PCEP Requirements for WSON Impairments Young Huawei Greg
Page th IETF – Stockholm, July 2009 A Framework for the Control and Measurement of Wavelength Switched Optical Networks (WSON) with Impairments.
Page th IETF – Beijing, November 2010 A Framework for the Control and Measurement of Wavelength Switched Optical Networks (WSON) with Impairments.
G : DCM Signaling Mechanism Using GMPLS RSVP-TE ITU-T Workshop on IP-Optical, Chitose, Japan 7/11/2002 Dimitrios Pendarakis, Tellium, Inc. ITU-T.
Requirement and protocol for WSON and non-WSON interoperability CCAMP WG, IETF 81th, Quebec City, Canada draft-shimazaki-ccamp-wson-interoperability-00.
Page th IETF – Vancouver, December 2007 PCEP Requirements and Extensions for the support of Wavelength Switched Optical Networks (WSON) Young
MPLS - 75th IETF Stockholm1 Composite Transport Group (CTG) Framework and Requirements draft-so-yong-mpls-ctg-framework-requirement-02.txt draft-so-yong-mpls-ctg-framework-requirement-02.txt.
OBGP: A mechanism for optical peering and lightpath trading George M. Porter Sahara Retreat UC Berkeley January 2002.
Page th IETF – Vancouver, December 2007 Framework for GMPLS and PCE Control of Wavelength Switched Optical Networks (WSON) & RWA Information for.
Page th IETF – Anaheim, California, March 2010 Framework for GMPLS and PCE Control of Wavelength Switched Optical Networks (WSON) Young
Draft-li-rtgwg-cc-igp-arch-00IETF 88 RTGWG1 An Architecture of Central Controlled Interior Gateway Protocol (IGP) draft-li-rtgwg-cc-igp-arch-00 Zhenbin.
Page th IETF – Orlando, FL, March 2013 Information Model for Impaired Optical Path Validation Greg BernsteinGrotto Networking Young Lee Huawei Xian.
Omniran IEEE 802 Scope of OmniRAN Date: Authors: NameAffiliationPhone Max RiegelNSN
Page th IETF – Dublin, Ireland, July 2008 Framework for GMPLS and PCE Control of Wavelength Switched Optical Networks (WSON) Greg
IEEE MEDIA INDEPENDENT SERVICES DCN: SAUC Title: Use cases of MIS framework to cooperate with SDN wireless access networks Date.
Textbook  “Data Communications and Networking” 2 nd Edition by Behrouz A. Forouzan  “Data and Computer Communication” 6 th Edition by William Stallings.
TERENA Networking Conference 2004, Rhodes, Greece, June Differentiated Optical Services and Optical SLAs Afrodite Sevasti Greek Research and.
WSON Routing WG Drafts 1.Routing and Wavelength Assignment Information Model for WSON 2.General Network Element Constraint Encoding for GMPLS Controlled.
Framework for Black Link Management and Control draft-kunze-black-link-management-framework-00 Ruediger KunzeDeutsche Telekom March th IETF Prague1.
Draft-shiomoto-ccamp-switch-programming-00 74th IETF San Francisco March Advice on When It is Safe to Start Sending Data on Label Switched Paths.
1 Framework for GMPLS based control of Flexi-grid DWDM networks draft-ogrcetal-ccamp-flexi-grid-fwk-02 CCAMP WG, IETF 86 Oscar González de Dios, Telefónica.
Page rd IETF – Minneapolis, MN, November 2008 A Framework for the Control and Measurement of Wavelength Switched Optical Networks (WSON) with Impairments.
Page th IETF – Philadelphia, March 2008 Signaling Extensions for Wavelength Switched Optical Networks Greg
OIF NNI: The Roadmap to Non- Disruptive Control Plane Interoperability Dimitrios Pendarakis
Page th IETF – San Francisco, CA, March 2009 A Framework for the Control and Measurement of Wavelength Switched Optical Networks (WSON) with Impairments.
INTERNET AND ADHOC SERVICE DISCOVERY BY: NEHA CHAUDHARY.
6TSCH Webex 05/17/2013. Add note on visibility It is our collective responsibility to make 6TSCH visible and attract participant Industrial Track.
IETF63 - enum WG1 ENUM validation architecture & friends Alex Mayrhofer enum.at / 3.4.e164.arpa Bernie Höneisen SWITCH.
Lucy Yong Young Lee 67 th IETF San Diego November 2006 GMPLS Extension for Reservation and Time based Bandwidth.
IETF 66 L1VPN Basic Mode Draft draft-ietf-l1vpn-basic-mode-00.txt Don Fedyk (Editor) Yakov Rekhter (Editor)
Signaling Extensions for Wavelength Switched Optical Networks draft-bernstein-ccamp-wson-signaling-02.txt Greg BernsteinGrotto Networking Young LeeHuawei.
Page th IETF – Vancouver, December 2007 Signaling Extensions for Wavelength Switched Optical Networks Greg
Extension to the Link Management Protocol (LMP/DWDM - rfc4209) for Dense Wavelength Division Multiplexing (DWDM) Optical Line Systems draft-dharinigert-ccamp-g lmp-02.txt.
Page rd IETF – Minneapolis, MN, November 2008 Information Model for Impaired Optical Path Validation Greg Grotto.
CCAMP WG, IETF 80th, Prague, Czech Republic draft-ietf-ccamp-gmpls-g709-framework-04.txt Framework for GMPLS and PCE Control of G.709 Optical Transport.
Generalized Label for Super-Channel Assignment on Flexible Grid draft-hussain-ccamp-super-channel-label-03 IETF 83 - Paris, France March , 2012.
Page th IETF – Chicago, July 2007 Applicability of GMPLS and PCE to Wavelength Switched Optical Networks Greg
PCE 64 th IETF PCE Policy Architecture draft-berger-pce-policy-architecture-00.txt Lou Berger Igor Bryskin Dimitri Papadimitriou.
Extension to the Link Management Protocol (LMP/DWDM - rfc4209) for Dense Wavelength Division Multiplexing (DWDM) Optical Line Systems draft-dharinigert-ccamp-g lmp-07.txt.
Page th IETF – Hiroshima, Japan, November 2009 WSON Signal Characteristics and Network Element Compatibility Constraints for GMPLS Greg
Moving towards an IRS WG Charter Ross Callon IETF 85, Atlanta.
55th IETF GSMP WG, Atlanta 1 General Switch Management Protocol (GSMP) v3 for Optical Support 55 th IETF GSMP WG, Atlanta Jun Kyun Choi
1 73th IETF, CCAMP WG, Minneapolis, MN, USA November 2008 RSVP-TE based Impairments Collection Mechanism Zafar Ali, Roberto Cassata (Cisco Systems) Marco.
Extensions to PCEP for Hierarchical Path Computation Elements PCE draft-zhang-pcep-hierarchy-extensions-00 Fatai Zhang Quintin Zhao.
1 73th IETF, CCAMP WG, Minneapolis, MN, USA November 2008 A Framework for defining Optical Parameters to be used in WSON Networks draft-martinelli-ccamp-opt-imp-fwk-00.txt.
77th IETF – Anaheim, March 2010 PCEP Extensions in support of WSON Signal Compatibility Constraints Young Huawei Greg.
PAPADIMITRIOU Dimitri IETF 49th Meeting - San Diego draft-papadimitriou-onni-frame D.Papadimitriou, M.Fontana, G.Grammel (Alcatel) Y.Xu, Z.Lin, S.Sankaranarayanan.
Doc.: IEEE /0013r0 Submission January 2010 Mika Kasslin, NokiaSlide 1 Coexistence architecture of Notice: This document has been prepared.
IETF Note Well Any submission to the IETF intended by the Contributor.
IEEE MEDIA INDEPENDENT SERVICES DCN: SAUC Title: Use cases of MIS framework to cooperate with SDN wireless access networks Date.
Framework for DWDM interface Management and Control draft-kdkgall-ccamp-dwdm-if-mng-ctrl-fwk-01 Ruediger KunzeDeutsche Telekom Gabriele Galimberti Cisco.
Page th IETF – Hiroshima, Japan, November 2009 Framework for GMPLS and PCE Control of Wavelength Switched Optical Networks (WSON) Greg
Requirements for the Resilience of Control Plane in GMPLS (draft-kim-ccamp-cpr-reqts-00.txt) Young Hwa Kim CCAMP WG (59 th IETF) Apr.04,
GMPLS extensions to communicate latency as a Traffic Engineering performance metric draft-wang-ccamp-latency-te-metric-00.txt draft-wang-ccamp-latency-te-metric-00.txt.
IEEE MEDIA INDEPENDENT HANDOVER DCN: Title: Load balancing in heterogeneous network use case Date Submitted:
CCAMP Working Group Online Agenda and Slides at: Data tracker:
Use Case for Distributed Data Center in SUPA
PCEP Extensions For Transporting Traffic Engineering (TE) Data
Applicability of GMPLS and PCE to Wavelength Switched Optical Networks
IETF 78th Maastricht, Netherlands, July 2010
73rd IETF – Minneapolis, MN, November 2008
L1VPN Working Group Scope
Debashish Purkayastha, Dirk Trossen, Akbar Rahman
Design & development of impairment-aware routing and wavelength assignment algorithms for Future Internet Mohammad Shoyaib Student ID: Image.
DetNet Data Plane Solutions draft-ietf-detnet-dp-sol-ip-02  draft-ietf-detnet-dp-sol-mpls-02  Bala’zs Varga, Jouni Korhonen, Janos Farkas, Lou Berger,
Presentation transcript:

, 74 th IETF, San Francisco, U.S.A., March draft-seno-ccamp-wson-impairment-compensate-cntl-00.txt Issued March 2 nd, , 74 th IETF, San Francisco, U.S.A. Requirement of Impairment Compensation Control in WSON

, 74 th IETF, San Francisco, U.S.A., March Authors and Contributors Author: Shoichiro Seno, Mitsubishi Electric Corporation Contributors: Yoshimasa Baba, Eiichi Horiuchi, and Kazuo Kubo, Mitsubishi Electric Corporation

, 74 th IETF, San Francisco, U.S.A., March Scope of This Document WSON with impairments: -Enables selection of an appropriate route and wavelength for a requested optical path with consideration of optical impairments by the IA-RWA process. -Will specify the means to convey optical impairments in the Control Plane, including estimated values of them. -Does not include definition, terminology, and measurement of optical impairments. WSON may be enhanced by: -Impairment compensation control for tunable compensation devices. -Automatic discovery of fiber-related link impairments. This document explains the reasons behind them.

, 74 th IETF, San Francisco, U.S.A., March Impairment Compensation Impairment Compensation is essential for optical transmission: Example: Compensation of chromatic dispersion -Transmitter node: Transmitter-side compensator, DCF; -Transient node: 3R repeater, DCF -Receiver node: Receiver-side compensator, DCF. Tunable compensation devices: -Can adjust themselves corresponding to a dynamic optical path’s impairments. -Requires control mechanism for adjustment. DCF: Dispersion Compensation Fiber

, 74 th IETF, San Francisco, U.S.A., March The IA-RWA process of WSON will estimate a route and wavelength pair’s impairments for Impairment Validation (IV).  Also beneficial for compensation control, i.e., (i) Selection of impairment compensation devices Assignment of compensation devices with different capabilities based on the estimates will maximize their usage. (ii) Initial setting of impairment compensation parameters Path establishment time will be shortened by configuring compensation devices using the estimates. (iii) Optimization of impairment compensation parameters Further optimization of compensation devices may be achieved by measuring performance of sample signal sent over the path selected by IA-RWA. Impairment Compensation Control

, 74 th IETF, San Francisco, U.S.A., March | Transmitter | | Receiver | | (A) measurement agreement | | | | (B) sample signal | | =====================================> | | | | (C) measurement result | | < | | | -----> : Control Plane messages =====> : Data Plane sample signal Figure 1 A Typical Measurement Process Impairment Compensation Control (Continued) For optimization of impairment compensation parameters, the Control Plane can support control sequence of performance measurement of sample signal.

, 74 th IETF, San Francisco, U.S.A., March Impairment Compensation Control (Continued) Generic Impairment Compensation Control Procedure: (1) Path establishment request (2) Selection of the path’s route and wavelength with an estimate of Impairments (IA-RWA process) (3) Assignment of compensation devices with initial setting of compensation parameters. (4) Optimization of compensation parameters through measurement of performance and adjustment of the compensation devices.

, 74 th IETF, San Francisco, U.S.A., March Impairment Compensation Control (Continued) Requirements of Impairments Compensation Control: (a) Transmission of an estimate of impairments of a path from the IA-RWA entity to nodes. (b) Transmission of an estimate of accumulated impairments between nodes. (c) Transmission of compensation device selection information, and optionally, compensation device setting parameters, from the IA-RWA entity to nodes. (d) Transmission of compensation device selection information, and optionally, compensation device setting parameters, between nodes. (e) Transmission of measurement control information between sample signal's transmitter and receiver.

, 74 th IETF, San Francisco, U.S.A., March Link Impairment Discovery Automatic discovery of link impairments upon installation of an optical node or an optical link may be beneficial for automated input of impairments to the IA-RWA entity. - Signaling-based impairment collection is not applicable at installation. - Link impairment discovery based on the same procedure as Neighbor Discovery can automate input of link impairments for the IA-RWA process.

, 74 th IETF, San Francisco, U.S.A., March Link Impairment Discovery (Continued) Link impairment discovery in the IA-RWA architectures: (i) Centralized IA-RWA Notification of discovered impairments by each node to PCE. (ii) Distributed IA-RWA (ii-1) Routing-based collection Advertisement of discovered impairments by each node for sharing. (ii-2) Signaling-based collection Use of discovered impairments by Impairment collection signaling.

, 74 th IETF, San Francisco, U.S.A., March Link Impairment Discovery (Continued) Requirements of Link Impairment Discovery (a)Transmission of link impairment measurement control information between a link's terminating nodes. (b)Transmission of measurement results from the receiver to the transmitter.

, 74 th IETF, San Francisco, U.S.A., March Inclusion of impairment compensation control and link impairment discovery in the WSON framework. 2. GMPLS protocol extensions for impairment compensation control and link impairment discovery, with appropriate characterization of them by guidance of ITU-T. Next Step