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OptIPuter Paradigm Shift. Traditional Provider Services: Invisible, Static Resources, Centralized Management. Distributed Device, Dynamic Services, Visible & Accessible Resources, Integrated As Required By Apps. Invisible Nodes, Elements, Hierarchical, Centrally Controlled,
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OptIPuter Paradigm Shift Traditional Provider Services: Invisible, Static Resources, Centralized Management Distributed Device, Dynamic Services, Visible & Accessible Resources, Integrated As Required By Apps Invisible Nodes, Elements, Hierarchical, Centrally Controlled, Fairly Static Unlimited Functionality, Flexibility Limited Functionality, Flexibility
OptIPuter Optical Architecture Year 2 Accomplishments • Requirements Defined • Specific Application Requirements for OptIPuter Data Communication Services on Distributed Optical Backplane • Middleware Requirements and Components Related to Those Services • Optical Testbed Requirements, Also Implemented • Architecture • Designed Phase 1 Optical Architecture, Identified Key Components • Determined a Phase 1 Framework and Protocol Implementation Model for the OptIPuter Distributed Optical Backplane • Determined a Method for Optical Dynamic Intelligent Network Service Layer for Dynamically Switched Wavelength, Based on DWDM, eg, with Individually Addressable Wavelengths on Multi-WL Optical Fiber • Determined Experimental Control Plane Architecture, Including Options for Distributed Control • Determined a Preliminary Architecture for Intra and Interdomain Signaling • Investigated Optical Technologies Enabling Access to Edge Devices • Explored Potentials for Enhanced Interfaces to Optical Devices • Investigated Options for Architecture for Large Flow Cut Through Method • Investigated Management Plane Concepts
OptIPuter Optical Architecture Year 2 Accomplishments • Implementations, Experiments, Extensions, et al • Designed and Developed Software Components • Began Migration from OGSA/OGSI to OASIS WSRF Within OGSA Context • Configured Testbed for Experiments • Experimented with Component Prototypes, Based on Emerging Architecture, on Lab Equipment, and on Large Scale Physical Testbeds, Metro, Regional, and International • Evaluated Dynamic Provisioning Capabilities • Conducted Demonstrations • Published Results • Worked with Standards Bodies Involved in Related Efforts, IETF, GGF • Engaged Researchers Involved With Related Activities (e.g., UCLP)
OptIPuter Optical Architecture Year 3 Goals • Enhance • Optical Backplane Architecture • Optical Network Control Technologies • Optical Signaling Technologies • Inter-Relationships Among Components, for Closer Integration • Design and Develop • New Lightpath Management Methods • Methods Survivability, Reliability, Restoration • Interfaces to Edge Resources, e.g., Clusters, Storage Devices • Implement • AAA Policy-Driven Access Method • Preliminary Lambda Scheduler (Resource Reservation Manager) • Performance Metrics, Analysis and Protocol Parameters on Testbed
Demo for Multi-domain OptIPuter Cluster PIN PIN PIN Cluster Cluster University of Amsterdam University of Illinois at Chicago All-optical LAN All-optical LAN NetherLight StarLight OC-192 All-optical LAN (Amsterdam) (Chicago) PDC PDC BOD/AAA PIN OMNInet All-optical MAN Cluster ODIN/GMPLS Signaling Link Chicago and Northwestern at Evanston
PIN Architecture Policy Negotiation Policy Negotiation AAA Server (PDP) AAA Server (PDP) AAA Server (PDP) Policy Repository Policy Repository Policy Repository Inter-Domain Control Plane PIN Server (PEP) PIN Server (PEP) PIN Server (PEP) Topology Datgabase Topology Database Topology Database Inter-domain Routing Inter-domain Routing BGP Routing BGP Routing BGP Routing RFORP Signaling RFORP Signaling RFORP Signaling Inter-domain Signaling Inter-domain Signaling Intra-Domain Control Plane 3 Intra-Domain Control Plane 2 Intra-Domain Control Plane 1 Domain 1 Domain 3 Domain 2