DWDM RAM NTONC DWDM-RAM: DARPA-Sponsored Research for Data Intensive Service-on-Demand Advanced Optical Networks DWDM-RAM demonstration sponsored by Nortel.

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Presentation transcript:

DWDM RAM NTONC DWDM-RAM: DARPA-Sponsored Research for Data Intensive Service-on-Demand Advanced Optical Networks DWDM-RAM demonstration sponsored by Nortel Networks and iCAIR/Northwestern University DatesMonday Oct 6 at 4pm & 6pm &Tuesday Oct 7 at 12Noon, 2pm & 4pm Times:Wednesday Oct 8 at 10am & 12Noon

DWDM RAM NTONC Optical Control Network Network Service Request Data Transmission Plane OmniNet Control Plane ODIN UNI-N ODIN UNI-N Connection Control L3 router L2 switch Data storage switch Data Path Control Data Path Control DATA GRID SERVICE PLANE DWDM-RAM Service Control Architecture 1 n Data Center 1 n 1 n Data Path Data Center Service Control Service Control NETWORK SERVICE PLANE GRID Service Request

DWDM RAM NTONC Challenge: Emerging data intensive applications require: Extremely high performance, long term data flows Scalability for data volume and global reach Adjustability to unpredictable traffic behavior Integration with multiple Grid resources Response: DWDM-RAM - An architecture for data intensive Grids enabled by next generation dynamic optical networks, incorporating new methods for lightpath provisioning

DWDM RAM NTONC DWDM-RAM: An architecture designed to meet the networking challenges of extremely large scale Grid applications. Traditional network infrastructure cannot meet these demands, especially, requirements for intensive data flows DWDM-RAM Components Include: Data management services Intelligent middleware Dynamic lightpath provisioning State-of-the-art photonic technologies Wide-area photonic testbed implementation

DWDM RAM NTONC Data Management Services OGSA/OGSI compliant Capable of receiving and understanding application requests Has complete knowledge of network resources Transmits signals to intelligent middleware Understands communications from Grid infrastructure Adjusts to changing requirements Understands edge resources On-demand or scheduled processing Supports various models for scheduling, priority setting, event synchronization

DWDM RAM NTONC Intelligent Middleware for Adaptive Optical Networking OGSA/OGSI compliant Integrated with Globus Receives requests from data services Knowledgeable about Grid resources Has complete understanding of dynamic lightpath provisioning Communicates to optical network services layer Can be integrated with GRAM for co-management Architecture is flexible and extensible

DWDM RAM NTONC Dynamic Lightpath Provisioning Services Optical Dynamic Intelligent Networking (ODIN) OGSA/OGSI compliant Receives requests from middleware services Knowledgeable about optical network resources Provides dynamic lightpath provisioning Communicates to optical network protocol layer Precise wavelength control Intradomain as well as interdomain Contains mechanisms for extending lightpaths through E-Paths - electronic paths

DWDM RAM NTONC Problem: More Data Than Network Application-level network scheduling Application must see dedicated bandwidth as a managed resource Advance scheduling of network from application Optimization is important Rescheduling with under-constrained requests Data transfers require service model Scheduled network and host data services combined Co-reservation of storage, data, and network Requires scheduling

DWDM RAM NTONC Architecture Applications Replication, Disk, Accounting, Authentication, Etc. ftp, GridFTP, Sabul, fast, etc Architecture, Page 2 OGSI provided for all application layer interfaces DRS NRM Other Svcs DMS Other dwdm … ODIN omninet ’s

DWDM RAM NTONC Key Terms DRS – Data Receiver Service Effects transfers NRM – Network Resource Management Interface to multiple physical/logical network types Consolidation, topology discovery, path allocation, scheduler, etc. DMS – Data Management Service Topology discovery, route creation, path allocation Scheduler/optimizer Other Services Replication, Disk, Accounting, Authentication, Security, etc.

DWDM RAM NTONC Design for Scheduling Network and Data Transfers scheduled Data Management schedule coordinates network, retrieval, and sourcing services (using their schedulers) Network Management has own schedule Variety of request models Fixed – at a specific time, for specific duration Under-constrained – e.g. ASAP, or within a window Auto-rescheduling for optimization Facilitated by under-constrained requests Data Management reschedules for its own requests request of Network Management DWDM-RAM October 2003Architecture Page 4

DWDM RAM NTONC Possible Extensions Authentication/Security Multi-domain environments Replication for optimization May help refine current Grid file system models May Use existing replica location services Priority models Rule-based referees Allow local and policy-based management Add domain specific constraints DWDM-RAM October 2003Architecture Page 5

DWDM RAM NTONC Extending Grid Services OGSI interfaces Web Service implemented using SOAP and JAX-RPC Non-OGSI clients also supported GARA and GRAM extensions Network scheduling is new dimension Under-constrained (conditional) requests Elective rescheduling/renegotiation Scheduled data resource reservation service (“Provide 2 TB storage between 14:00 and 18:00 tomorrow”) DWDM-RAM October 2003Architecture Page 6

DWDM RAM NTONC Current Implementation ftp Client Application DRS NRM DMS ODIN OMNInet ’s OGSI provided for network allocation interfaces

DWDM RAM NTONC NRM OGSA Compliance OGSI interface GridService PortType with two application-oriented methods: allocatePath(fromHost, toHost,...) deallocatePath(allocationID) Usable by a variety of Grid applications Java-oriented SOAP implementation using the Globus Toolkit 3.0

DWDM RAM NTONC NRM Web Services Compliance Accessible as Web Service for non-OGSI callers Fits Web Service model: - Single-location always-on service - Atomic message-oriented transactions - State preserved where necessary at the application level No OGSI extensions, such as service data and service factories

DWDM RAM NTONC Data Management Service Uses standard ftp (jakarta commons ftp client) Implemented in Java Uses OGSI calls to request network resources Currently uses Java RMI for other remote interfaces Uses NRM to allocate lambdas Designed for future scheduling λ Data ReceiverData Source FTP clientFTP server DMS NRM Client App

DWDM RAM NTONC Network Resource Manager Presents application-oriented OGSI / Web Services interfaces for network resource (lightpath) allocation Hides network details from applications Implemented in Java Items in blue are planned

DWDM RAM NTONC Network Resource Manager Network Resource Manager End-to-End-Oriented Allocation Interface Using Application (DMS) Omninet Network Manager (Odin) Omninet Data Interpreter Segment-Oriented Topology and Allocation Interface Scheduling / Optimizing Application Network-Specific Network Manager Network-Specific Data Interpreter Items in blue are planned

DWDM RAM NTONC Enabling High Performance Support for Data-Intensive Services With On-Demand Lightpaths Created By Dynamic Lambda Provisioning, Supported by Advanced Photonic Technologies OGSA/OGSI Compliant Service Optical Service Layer: Optical Dynamic Intelligent Network (ODIN) Services Incorporates Specialized Signaling Utilizes Provisioning Tool: IETF GMPLS New Photonic Protocols Lightpath Services

DWDM RAM NTONC Optical Dynamic Intelligent Networking Services: An Architecture Specifically Designed to Support Large Scale, Data Intensive, Extremely High Performance, Long-Term Flows OGSA/OGSI Compliant Service Dynamic Lambda Provisioning Based on DWDM Beyond Traditional Static DWDM Provisioning Scales to Gbps, Terabits Data Flows with Flexible, With Fine-Grained Control Lightpaths: Multiple Integrated Linked Lambdas, Including One to Many and Many to One, Intradomain/Interdomain ODIN

DWDM RAM NTONC ODIN Server – A server software that accepts and fulfills requests (eg, allocates and manages routes, paths) Resource – A host or other hardware that provides a service over the optical network, OGSA/OGSI compliant Resource Server – Server software running on a Resource that provides the service Resource Config. Server – Server software that receives route configuration data from the ODIN Server Client – A host connecting to a Resource through the optical network, in this demonstration, Grid clusters Network Resource – Dynamically allocated network resource, in this demonstration, Lightpaths Terms

DWDM RAM NTONC Specialized Signaling Request Characterization, Resource Characterization, Optimization, Performance, and Survival/Protection, Restoration, Characterization Basic Processes Are Directed at Lightpath/  Management: Create, Delete, Change, Swap, Reserve And Related Processes: Discover, Reserve, Bundle, Reallocate, etc. IETF GMPLS As Wavelength Implementation Tools Utilizes New Photonic Network Protocols Lightpath Provisioning Processes

DWDM RAM NTONC O-UNI, Specialized Interfaces, eg, APIs, CLIs Wavelength Distribution Protocol Auto-Discovery of Optical Resources Self-Inventorying Constraint Based Routing Options for Path Protection, Restoration Options for Optical Service Definitions Core Processes

DWDM RAM NTONC Options for Interface Addressing Options for VPN IDs Port, Channel, Sub-channel IDs Routing Algorithm Based on Differentiated Services Options for Bi-directional Optical Lightpaths, and Optical Lightpath Groups Optical VPNs Addressing and Identification

DWDM RAM NTONC 4x10GE Northwestern U Optical Switching Platform Passport 8600 Application Cluster A four-node multi-site optical metro testbed network in Chicago -- the first 10GE service trial! A test bed for all-optical switching and advanced high-speed services OMNInet testbed Partners: SBC, Nortel, iCAIR at Northwestern, EVL, CANARIE, ANL Application Cluster Optical Switching Platform Passport x10GE StarLight OPTera Metro 5200 Application Cluster Optical Switching Platform Passport x10GE 8x1GE UIC CA*net3--Chicago Optical Switching Platform Passport 8600 Closed loop 4x10GE 8x1GE Loop OMNInet Core Nodes

DWDM RAM NTONC Fiber CAMPUS FIBER (16) CAMPUS FIBER (4) Grid Clusters 10/100/ GIGE 10 GE To Ca*Net 4 Lake Shore Photonic Node S. Federal Photonic Node W Taylor Sheridan Photonic Node 10/100/ GIGE 10/100/ GIGE 10/100/ GIGE 10 GE Optera Gb/s TSPR Photonic Node  PP GE PP 8600 PP 8600        Optera Gb/s TSPR 10 GE Optera Gb/s TSPR     Optera Gb/s TSPR     1310 nm 10 GbE WAN PHY interfaces 10 GE PP 8600 … EVL/UIC OM5200 LAC/UIC OM5200 INITIAL CONFIG: 10 LAMBDA (all GIGE) StarLight Interconnect with other research networks 10GE LAN PHY (Dec 03) TECH/NU-E OM5200 CAMPUS FIBER (4) INITIAL CONFIG: 10 LAMBDAS (ALL GIGE) Optera Metro 5200 OFA NWUEN-1 NWUEN-5 NWUEN-6 NWUEN-2 NWUEN-3 NWUEN-4 NWUEN-8NWUEN-9 NWUEN-7 Fiber in use Fiber not in use 5200 OFA Optera 5200 OFA 5200 OFA OMNInet 8x8x8 Scalable photonic switch Trunk side – 10 G WDM OFA on all trunks

DWDM RAM NTONC Overlay Management Network (Current) Uses ATM PVC with 2 Mb/s CIR from existing network (MREN + OC12) Hub and spoke network from 710 Lakeshore Dr. Photonic Switch BayStack 350 OPTera 5200 OLA Passport 8600 Local Management Station To Management Network ATM switch port 10/100 BT OC-12 Ring Evanstan 710 Lakeshore Dr. 600/700 S. Federal Univ. IL NAP SBC OC-3 Part of StarTap MREN OMNInet Control Plane Overlay Network MREN= Metropolitan Research And Education Network

DWDM RAM NTONC Northwestern Leverone Hall Data Com Center 10GE WAN/LAN PHY to OMNInet The implementation is lambdas (unprotected). Installed shelf capacity and common equipment permits expansion of up to 16 lambdas through deployment of additional OCLD, and OCI modules. A fully expanded OM5200 system is capable of supporting 64 lambdas (unprotected) over the same 4- fiber span. Up to 16xGE (SMF LX) 4-fibers ~1km Clusters For Telecom2003 Demo iCAIR Clusters at Northwestern Technological Institute OM5200 PP8600 ~20m DWDM Between Cluster Site and OMNInet Core Node at iCAIR sites at Northwestern in Evanston DWDM on Dedicated Fiber ~20m OMNInet Optical Grid Clusters

DWDM RAM NTONC Relative Fiber power Relative power Tone code A/D PPS Control Middleware tap OFA D/A Management & OSC Routing VOA D/A Power measurement switch Switch Control AWG Temp. Control alg. D/A A/D AWG Heater + - Set point DSP Algorithms & Measurement tap PhotoDetector Drivers/data translation Connection verification Path ID Corr. Fault isolation Gain Controller Leveling Transient compensator Power Corr. + - LOS + - Photonics Database 100FX PHY/MAC Splitter OSC cct FLIP Rapid Detect Photonic H/W Physical Layer Optical Monitoring and Adjustment

DWDM RAM NTONC End-to-end Transfer time 0.5s2.6s0.5s464s0.3s11s ODIN Server Processing File transferdone, pathreleasedFile transferrequestarrives Path Deallocation request Data Transfer 10 GB Path ID returned ODIN Server Processing Path Allocation request 45s Network reconfiguration 0.14s FTP setup time

DWDM RAM NTONC Application level measurements Path allocation:48.7 secs Data transfer setup time:0.141 secs FTP transfer time: secs Effective transfer rate:156 Mbits/sec Path tear down time:11.3 secs File size:10 GB

DWDM RAM NTONC 10GB file Transfer

DWDM RAM NTONC Path Allocation Overhead as a % of the Total Transfer Time Knee point shows the file size for which overhead is insignificant 1GB5GB 500GB

DWDM RAM NTONC

DWDM RAM NTONC File transfer times

DWDM RAM NTONC File Transfer Times Max bandwidth 900+ Mb/s Max bandwidth 900+ Mb/s

DWDM RAM NTONC Optical level measurements Time to set up an individual X-connect:secs UNI-N processing time for request:secs Time taken by the routing card to send command to control card: secs Time taken by the routing card to forwarding request to next hop in control plane: secs Time taken by the control card to drive the switch card : secs End-to-end light path setup : secs

DWDM RAM NTONC Enhanced Optical Dynamic Intelligent Network Services Additional OGSA/OGSI development Enhanced signaling Enhanced integration with optical component addressing methods Extension of capabilities for receiving information from L1 process monitors Enhanced capabilities for establishing optical VPNs New adaptive response processes for dynamic conditions Explicit segment specification

DWDM RAM NTONC Enhanced Middleware Services Enhanced integration with data services layer Enhanced understanding of L3-L7 requirements Awareness of high performance L3/L4 protocols Enhanced integration with edge resources Middleware process performance monitoring and analysis New capabilities for scheduling Security

DWDM RAM NTONC Expanded Data Management Service New methods for scheduling New methods of priority setting Enhance awareness of network resources Technique for forecasting demand and preparing responses Replication services Integration with metadata processes Integration with adaptive storage services Enhanced policy mechanisms

DWDM RAM NTONC Photonic Testbed - OMNInet Implementation of RSVP methods Experiments with parallel wavelengths Experiments with new types of flow aggregation Experiments with multiple 10 Gbps parallel flows Enhancement of control plane mechanisms Additional experiments with interdomain integration Enhanced integration with clusters and storage devices

DWDM RAM NTONC Enhanced security methods Optimization heuristics Integration with data derivation methods Extended path protection Restoration algorithms Failure prediction and fault protection Performance metrics, analysis and reporting Enhanced integration of optical network information flows with L1 process monitoring Additional Topics

DWDM RAM NTONC Summary Next generation optical networking provides significant new capabilities for Grid applications and services, especially for high performance data intensive processes DWDM-RAM architecture provides a framework for exploiting these new capabilities These conclusions are not only conceptual – they are being proven and demonstrated on OMNInet – a wide-area metro advanced photonic testbed