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U'S' Optical Network Testbeds Status

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Title: U'S' Optical Network Testbeds Status


1
U.S. Optical Network Testbeds Status
  • Grant Miller
  • National Coordination Office
  • July 3, 2004

2
U.S. Optical Network Testbeds
  • UltraSciencenet DOE
  • CHEETAH NSF
  • DRAGON NSF
  • STARLight NSF
  • HOPI Internet2
  • OMNInet Nortel
  • National LambdaRail (NLR) Consortium
  • Also CALREN, Colorado, Connecticut, Florida,
    Indiana (I-Light), Illinois (I-Wire),
    Maryland/DC/ Virginia (MAX), Michigan, Minnesota,
    NY(NEREN), North Carolina, Ohio, Oregon, Rhode
    Island, SURA, Texas, Utah, Wisconsin

3
Applications Network Performance
  • Applications requirements are drivers for
    bandwidth needs
  • DWDM delivers up to 100 Gbps
  • SONET framing delivers up to 40 Gbps
  • TCP/IP delivers about 15 Gbps
  • Site firewalls deliver about 7 Gbps to an
    application
  • But high-end applications require 40 Gbps, e.g.
  • Terascale Supernova Initiative Terabyte in days
  • High Energy Physics Terabyte data transfers
  • Therefore, consider optical networking options
    to
  • Bypass firewalls
  • Carry non-IP frames (e.g., Fiber Channel over
    SONET)

4
UltraScienceNet Planned Capabilities
  • Sparse, lambda-switched, dedicated,
    channel-provisioned testbed
  • Connects hubs close to DOEs largest science
    users Users pay last-mile costs
  • Provide an evolving matrix of switching
    capabilities
  • Separately fund research projects to support
    applications
  • High-performance protocols
  • Control
  • Visualization

5
UltraScienceNet Resources
  • Off-hours capacity from DOEs ESnet Expected 2 x
    OC48 between Sunnyvale and Chicago
  • Dedicated lambdas on NLR
  • 2 x 10G lambdas between Chicago and Sunnyvale
  • Possibly two more in year 2 or 3
  • Two dedicated lambdas on the Oak Ridge National
    Laboratory Chicago-Atlanta Connector
  • Switching technologies
  • Ciena, Cisco or Sycamore (SONET) migrating to
  • Calient Glimmerglass all-optical or a hybrid
  • Progression of point-to-point (P2P) transport
    technologies (Fiber channel, Infiniband)
  • Migrate to the production ESnet environment

6
UltraScienceNet Engineering Approach
  • Network engineering
  • Connect Atlanta-Chicago via ORNL
  • 16 P2P circuits OC192, 10 Gig-E
  • Provide the NLR alternate route to close its ring
  • Buy IRUs from Qwest and TVA
  • Light with equipment from Ciena
  • Please see http//www.csm.ornl.gov/ultranet

7
CHEETAH Sponsored by the NSFJanuary
2004-December 2007
  • Goal Develop the infrastructure and networking
    technologies to support a broad class of
    escience, and specifically the Terascale
    Supernova Initiative
  • Concept Create a network to provide on-demand
    end-to-end dedicated bandwidth channels to
    applications as well as an IP path to support
  • High throughput file transfers
  • Interactive remote visualization
  • Remote computational steering
  • Multipoint collaborative computation
  • Participation by
  • Oak Ridge National Laboratories
  • University of Virginia
  • North Carolina State University
  • City University of New York

8
CHEETAH Technology
  • Dedicated channel High-speed Ethernet mapped to
    Ethernet-over-SONET circuit
  • Leverage existing technologies
  • 100 Mbps/1Gbps Ethernet in LANs
  • SONET in MANs/WANs
  • Availability of Multi-Service Provisioning
    Platforms (MSPP) class devices that can
  • Map Ethernet to Ethernet over SONET
  • Cross-connect dynamically
  • Rate-control Ethernet ports
  • Provide a 1 Gbps ORNL-Atlanta Channel

9
CHEETAH Implementation
  • Application tools
  • File tansfer
  • Visualization Ensight or Aspect/Paraview, Custom
    open GL codes
  • Computational steering
  • Transport protocols
  • File transfers
  • Control channels small portion of channel
    bandwidth
  • Rate-based flow control 2 x Dell 2.4 Ghz PCs
    with 100 Mhz 64-bit PCI busses
  • Make it wide-area e.g., use NLR, MPLS tunnels
    through Abilene, or collocated switches at
    Abilene PoPs

10
DRAGON Funded by NSF
  • Provide Cyberinfrastructure application support
    and advanced network services on an experimental
    infrastructure using emerging standards and
    technology
  • Advanced services
  • Dynamic provisioning of deterministic end-to-end
    paths
  • Rapid provisioning of application-specific net
    topologies
  • Reserve resources and topology in advance,
    instantiate as needed
  • Provide AAA
  • Protocol, format, framing agnostic direct
    transmission of any optical signal

11
DRAGON Design
  • All optical transport in the metro core
    Edge-to-edge wavelength switching. Push OEO
    demarc to the edge
  • Standardized GMPLS protocols for dynamic
    provisioning intra-domain connections
  • Develop inter-domain protocols to distribute
    Transport Layer Capability Sets (TLCS) across
    multiple domains

12
DRAGON Research Areas
  • Inter-domain routing to advertise the TLCS
    Network Aware Resource Broker (NARB)
  • Ability to request deterministic network
    resources
  • Virtual label switched routers Translate GMPLS
    requests into configuration commands to switches
    via the SNMP protocol
  • Minimize OEO requirements for light-paths
  • Formalized definition language to instantiate
    complex application topologies

13
DRAGON Network Points
  • Un. Of Maryland
  • NASA GSFC
  • DC, Northeast
  • NCSA
  • ISI-East
  • Connection to Bossnet, MIT/Haystack
  • Note Commercial partner is Movaz

14
StarLight
  • Exchange point 1 GigE and 10 GigE for national
    and international research networks (over 30
    networks)
  • NSF Teragrid (10 x 10 Gb over I-wire), Extensible
    Teragrid Facility (ETF) NLR
  • UltraScienceNet (DOE)
  • Global Lambda Integrated Facility (GLIF)
  • GEANT
  • WIDE
  • APAN
  • SURFnet
  • Many others
  • Calient Diamondwave Switches at StarLight and
    NetherLight facilities

15
Hybrid Optical Packet Infrastructure (HOPI)
Project
  • Architecture based on availability of optical
    infrastructure dark fiber acquisitions at
    national, regional, local level
  • Implement a hybrid of shared IP packet switching
    and dynamically provisioned optical lambdas.
  • Infrastructure
  • MPLS tunnels on Abilene
  • Internet2 Wave on the NLR footprint
  • Regional Optical Networks (RONs)
  • Model waves using deterministic paths
  • Provide basic service of 1 GigE or 10 GigE
    unidirectional point-to-point path
  • Access through Abilene through direct or MPLS
    L2VPN tunnel
  • Support 15-20 experiments, e.g. dynamic
    provisioning

16
HOPI Status
  • Deterministic path CERN to LA
  • - Internet2
  • GEANT
  • CANARIE
  • Others StarLight, SURFnet
  • Address issues
  • Different technologies
  • Cross administrative domains
  • Dynamic provisioning
  • http//hopi.internet2.edu

17
Optical Metro Network Initiative (OMNInet)
  • Metropolitan 10 Gbps DWDM WAN and LAN photonic
    switched network trial
  • Partnership of Nortel Networks, SBC
    Communications, International Corporation of
    Advanced Internet Research (iCAIR)/Northwestern
    Un.
  • Services O-VPNs, dial-a-lambda service, router
    bypass
  • Emerging applications Optical Grids, storage
    on-demand, data mining, 3D teleconferencing,
    large-science apps, visualization

18
OMNInet Architecture
  • 4 sites in Chicago
  • 6 fiber spans
  • 4 wavelength planes switching without wavelength
    translation
  • DWDM Lightpaths

19
National LambdaRail (NLR)
  • National-scale member-owned/managed optical
    networking and research facility
  • NLR Objective Bridge the gap between optical
    networking research and state-of-the-art
    applications research
  • NLR is a set of facilities, capabilities, and
    services supporting multiple experimental and
    production networks for the U.S. research
    community
  • Networks exist side-by-side on the same fiber but
    are physically and operationally distinct
  • Virtuous Circles Participants dedicated optical
    capability from campus labs to the NLR network.
    NLR works with RONs to deliver NLR capabilities
    to campuses.

20
NLR Characteristics
  • Experimental platform for research
  • Optical switching and network layers
  • 50 of capacity is reserved for research
  • Experimental Support Center
  • Use high-speed Ethernet for WAN Transport First
    national-scale Ethernet deployment
  • Sparse backbone technology Members develop local
    optical networking and performance in their areas
  • Acceptable Use Policy Free

21
NLR Planned Capabilities
  • Point-to-point waves 10 GigE LAN PHY, OC-192
    Cisco systems
  • Switched Ethernet network using Cisco switches
  • Experimental IP network using Cisco routers
  • Dark fiber for optical layer research
  • Traditional NOC services
  • Dense Wave Division Multiplexing national optical
    footprint Capacity of 40 wavelengths per fiber
    pair deployed on 10,000 miles of dark fiber

22
NLR Deployment
  • Initial 4 lambdas
  • One lambda for national switched Ethernet
    experimental network
  • One lambda for national 10 Gbps IP network
  • One lambda for quick start facility for new
    research projects
  • One lambda for Internet2 HOPI testbed
  • Additional lambdas provisioned as needed
  • National deployment (California to DC to Florida)
    by August 2004
  • http//www.nationallambdarail.org
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