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© Ciena Confidential and Proprietary Connecting to Internet2 at 100G A ‘How To’ Cookbook Jim Archuleta Director, R&E Initiatives, Ciena Gov’t Solutions April 22, 2013
2 © Ciena Confidential and Proprietary Outline 100G Connectivity Baseline Overview Models of access Coherent Technology baseline Building blocks of 100G access DWDM Environment Considerations Photonics Service Capabilities & Layer 1/2 Integration Looking forward
3 © Ciena Confidential and Proprietary Campus-Regional 100G Access to Internet2 Access Models Fiber DWDM L2/L3 Embedded Transceiver DWDM Network System 100G is just the science pipe on campus egress. What about campus/regional aggregation? Campus / Connector network Campus/Regional Connector Users Other ISPs or cloud SPs 100G 1/10/40/100GbE 100G
4 © Ciena Confidential and Proprietary Optimize 3-Ds for different Apps: Terrestrial Long-Haul Trans-Oceanic Ultra High-Capacity Metro Advanced Coherent DSP Exploits all 3Ds in order to Optimize Spectral Efficiency, Performance, Cost & Reliability Advanced Coherent DSP Exploits all 3Ds in order to Optimize Spectral Efficiency, Performance, Cost & Reliability Bits per symbol Symbols per second Number of sub-carriers QAM, M-ARY freq “ Super Channels ” Polarization Diversity & OFDM ff (0,0) (0,1) (1,0) (1,1) Q I QPSK BPSK Coherent Networking – 100G & Beyond 3 Dimensions to Drive Capacity & Cost/bit Evolution High coding gain Forward Error Correction Improved noise tolerance, enabling increased distance Adaptive Soft-FEC enabling lower latency High Performance DSP Recover signal from advanced modulation schemes CD compensation: eliminate DCF, minimize amplifiers PMD compensation: reuse bad fibre plant, minimize regens +
5 © Ciena Confidential and Proprietary Modulation drives Scale, Reach and Capacity Bit RateModulation FormatSpectral widthApplication 40 Gbit/sDP-QPSK16 GHzLong Haul 40G 40 Gbit/s2C-DP-BPSK40 GHzMaximum reach 40G (2 carriers) 100 Gbit/s2C-DP-QPSK40 GHzLong Haul 100G 100 Gbit/sDP-QPSK40 GHzLong Haul 100G 100 Gbit/sDP-16QAM20 GHzHigh spectral efficiency 100G 100 Gbit/s2C-DP-BPSK80 GHzMaximum reach 100G (2 carriers) 200 Gbit/sDP-16QAM40 GHzHigh spectral efficiency 200G 400 Gbit/s2C-DP-16QAM80 GHzHigh spectral efficiency 400G (2 carriers) More… Increased Modem Flexibility Variable data capacity within an existing DWDM channel or… Variable spectral occupancy going hand-in-hand with a gridless and colorless optical line system Symbol rate (spectral width) Bits/symbol (format) # of carriers (spectral width) Flexibility on 3-axis
6 © Ciena Confidential and Proprietary 100G Transceiver and ‘Muxceiver’ 100G = 100GbE Client OTU4 OTN Layer 1 100G transmission 10x10G options Supported optics: 10G: XFP; SFP+ 100G: LR-4, LR10, SR10 Space Considerations 100G OCI/OCLD 10x10G OCI/OCLD
7 © Ciena Confidential and Proprietary Outline 100G Connectivity Baseline Overview Models of access Coherent Technology baseline Building blocks of 100G access DWDM Environment Considerations Photonics Service Capabilities & Layer 1/2 Integration Looking Forward
8 © Ciena Confidential and Proprietary Photonics Defines capacity and flexibility DWDM density 50GHz – 88 Channels 100GHz Channels; lower cost Alternative capacity models Fixed filter (e.g. 4/8 Channel filter) Lowest cost Least flexible and incremental capacity augmentation Full Spectrum Mux/Demux (44 / 88 Channel) Full system capacity ROADM / WSS - Optical Switching for cost- optimization and fullest flexibility Directionless / Colorless adds even more carrier class capability. AmpAmp WSSWSS WSSWSS AmpAmp Channel Mux n Fil ter AmpAmp AmpAmp West sCMD n East sCMD n AmpAmp WSSWSS WSSWSS AmpAmp Channel Mux/Demux n Filt er Channel Mux/Demux n Cost Capacity Flexibility Optimization Fixed Filter ROADM Directionless ROADM 100GHz 50 GHz
9 © Ciena Confidential and Proprietary Service Capabilities and Layer 1/2 Convergence Ethernet 100GbE 10/1 GbE 10/100Mbps Fibre Channel 100/200/400/800 OTU4/3/2/1/0 SONET/SDH Integrated Switching Layer 1 OTN Layer 2 Ethernet Converged L0/L1/L2 + =
10 © Ciena Confidential and Proprietary Looking forward – Possibilities 100G Access / Multiple Layer Connectivity Support SDN Enabled Integrated photonics Bifurcated Management Campus / Connector network Campus/Regional Connector Users Other ISPs or cloud SPs 100G 1/10/40/100GbE 100G
© Ciena Confidential and Proprietary Thank you!
12 © Ciena Confidential and Proprietary Session Abstract While the deployment of the new 100Gig Internet2 Network provides an opportunity for the Internet2 community to redefine advanced networking for research and education, it also presents many universities and connectors with a challenge -- how to cost effectively deploy 100 Gbps transport infrastructure from their respective campuses to access the nearest Internet2 hub. This panel discussion will review practical, cost-effective solutions for enabling 100 Gbps wavelength connections from research & education networks to the Internet2 backbone. The advanced modulation for 100 Gbps optical transport enables 100G wavelengths to be easily added to existing 10 Gbps DWDM systems. See which vendor solutions support this functionality. The monthly recurring cost operating expenses of colocation (i.e. space, power, cooling, etc.) can, over time, outweigh the capital costs of equipment. Learn how the various vendor solutions address these factors. Come see which vendor solutions are compatible with 100GHz and 50GHz DWDM modulation schemes and can operate on any available wavelength within current 40- and 80-channel DWDM wavelength plans. Discussion topics to include: What are the current network topologies and equipment options for implementing 100Gbps access connections? Learn how incremental cost per Mbps of bandwidth is impacted with 100Gbps versus the cost for existing 10G systems. What is the typical reach using the new 100Gbps coherent detection solutions? Which vendor solutions can be configured as a muxponder or transponder thereby aggregating and/or transporting any mix of 10 Gbps, 40 Gbps and 100 Gbps services over a 100 Gbps OTN connection?
13 © Ciena Confidential and Proprietary Ciena and the Internet2 network Utilizes Ciena 6500 Packet-optical Platform 100Gbps capable 88-channel DWDM system Network available since 2011 Scalable beyond 100G Compact, scalable footprint that adapts to changing needs Flexible ROADM-based solution including directionless functionality for flexible optical connectivity Gives communities access to telemedicine, distance learning, advanced applications not currently possible with consumer-grade Internet service Connects underserved research and higher education institutions and colleges, K- 12 education, healthcare, public safety 200,000+ institutions to get next-gen Internet-based applications Nation’s most scalable, robust, 100G network dedicated to R&E and Underserved Community networks.
Next-Generation ROADMs October 1, 2012 Sheldon Walklin CTO, Optelian.
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Rob Adams, VP Product Marketing/Product Line Management From Infrastructure to Equipment to Ongoing Operations Reducing the Cost of Optical Networking.
Proprietary & Confidential1 OPLL vision... Coherent WDM systems: INCREASED BANDWIDTH BY > 10 X LOWER COST PER BIT Closely spaced, long haul WDM systems.
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© Ciena Corporation The Path to 100 G Ethernet Martin Nuss VP & Chief Technologist.
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Photonic Components Rob Johnson Standards Engineering Manager 10th July 2002 Rob Johnson Standards Engineering Manager 10th July 2002.
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1 | Infinera Copyright 2013 © Intelligent Transport Network Manuel Morales Technical Director Infinera.
Beyond 10 Gbps J. Livas Chief Technologist Core Transport Business Group.
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Willy Sabry Alcatel-Lucent Indonesia 4G Backhaul.
The Internet2 Network and LHC Rick Summerhill Director Network Research, Architecture, and Technologies Internet2 Given by Rich Carlson LHC Meeting 25.
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Optical Transport Platform MSP 3000 Paweł Pilewski Pre-Sales Engineer MICROSENS GmbH & Co. KG.
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RIT Campus Data Network. General Network Statistics Over 23,000 wired outlets Over 14,500 active switched ethernet ports > 250 network closets > 1,000.
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Dec. 6th, 1999Globecom’99 IP Over DWDM : The Next Step Niall Robinson Director - Photonics Systems Integration Qtera Corporation Building.
Towards Dynamic and Scalable Optical Networks Brian Smith 3 rd May 2005.
Cost effective and flexible coherent solutions for existing and new optical networks Norbert Gulczynski August 19 th, 2015.
® Adtran, Inc All rights reserved 1 ® Adtran, Inc All rights reserved ADTRAN & Smart Grid January 21, 2010 Kevin Morgan Director, Product Marketing.
Lighting up the metro backbone to enable advanced services SURPASS hiT 7300 Metro Optical Solution Copyright © Siemens AG All rights reserved.
OTN Overview & Update Jean-Marie Vilain Product Specialist.
© 2001 Caspian Networks, Inc. CONFIDENTIAL AND PROPRIETARY INFORMATION Internet Intelligence and Traffic Growth Lawrence G. Roberts Chairman & CTO Caspian.
ONE PLANET ONE NETWORK A MILLION POSSIBILITIES Barry Joseph Director, Offer and Product Management.
1 Reliable high-speed Ethernet and data services delivery Per B. Hansen ADVA Optical Networking February 14, 2005.
Lecture: 9 Elastic Optical Networks Ajmal Muhammad, Robert Forchheimer Information Coding Group ISY Department.
Optical Networks Division 1 Role of Dynamic Optical Networks in Transitioning to IP Centric Architectures Emanuel Nachum Vice President, Marketing ECI.
1 | Infinera Copyright 2013 © Infinera's Photonic Integrated Circuits (PICs) Intelligent Transport Network By Dr. Abdul Hyee.
Wireless Ethernet Backhaul : A Carrier’s Perspective Rajesh Yadav Access Network Architecture and Design Verizon Communications.
© 2010 Verizon. All Rights Reserved. PTEXXXXX XX/10 Marcel Rijnders Director EMEA Managed Services September 20, 2010 Commercial Deployment of 100G Ultra-Long-Haul.
Five Essential Elements for Future Regional Optical Networks Harold Snow Sr. Systems Architect, CTO Group.
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Fujitsu Proprietary and Confidential All Rights Reserved, ©2006 Fujitsu Network Communications Simplicity and Automation in Reconfigurable Optical Networks.
Datarate Adaptation for Night-Time Energy Savings in Core Networks Irfan Ullah Department of Information and Communication Engineering Myongji university,
1 | Infinera Confidential & Proprietary Transport SDN: Key Drivers & Elements Chris Liou – Infinera Corp VP Network Strategy
1 Provider Bridging design for UNM Campus - CPBN.
Connect communicate collaborate A Possible New Dawn for the Future GÉANT Network Architecture Tony Breach, NORDUnet A/S GN3 JRA1 Future Network Vilnius,
Enabling Technologies and Challenges in Coherent Transport Networks David Dahan, Ph.D. ECI Telecom Ltd.
The Optical Transport Network (OTN) – G.709. ● Introduction ● Why OTN? ● Advantages ● Interfaces ● Properties ○ Architecture and Overhead ○ TCM ○ FEC.
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