Application-engaged Dynamic Orchestration of Optical Network Resources DWDM RAM DWDM RAM Defense Advanced Research Projects Agency BUSINESS.

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Presentation transcript:

Application-engaged Dynamic Orchestration of Optical Network Resources DWDM RAM DWDM RAM Defense Advanced Research Projects Agency BUSINESS WITHOUT BOUNDARIES

Grids & C. freed us from the cuffs of bit-blasting races Apps such as Grids call for a complex mix of: Bit-blasting Finesse (granularity of control) Virtualization (access to diverse knobs) Resource bundling (network AND …) Security (AAA to start) Free from GUIs, any human intervention + + = = λ’s are worth a whole new look! + + +

Business Drivers for next-gen λ services Business Continuity/Disaster Recovery –Remote file storage/back-up –Recovery after equipment or path failure –Alternate site operations due to natural or man-made disaster Storage and data on demand –Rapid expansion of network attached storage capacity –Archival storage and retrievals –Logistical networking – pre-fetch and cache Grids –Financial: portfolio risk analysis; Manufacturing: CAD; Entertainment: digital rendering; Lifesciences: drug discovery –Utility computing for pay-as-you-go business models

We pick role-model dynamics… Under-constrained window use-case Request for 1/2 hour between 4:00 and 5:30 on Segment D granted to Bob’s Grid at 4:00 New request from Alice’s Grid for same segment for 1 hour between 3:30 and 5:00. Alice’s credentials support the request Reschedule Bob’s Grid to 4:30; Alice’s Grid stays at 3:30. Everyone is happy. Route allocated for a time slot; new request comes in; former route can be rescheduled for a later slot within window to accommodate new request 4:305:005:304:003:30 Bob’s Grid 4:305:005:304:003:30 Alice’s Grid 4:305:005:304:003:30 Bob Alice

… and map them over dynamic λs Applications Data Transfer Scheduling Network Resource Scheduling Communication Protocols ODIN OMNInet Fabric Connectivity Resource Collective Application DWDM-RAMDWDM-RAMDWDM-RAMDWDM-RAM

DWDM-RAM Architecture Data Center 1 n 1 n Data Center Data-Intensive Applications Dynamic Lambda, Optical Burst, etc., Grid services Data Transfer Service Basic Network Resource Service Network Resource Scheduler Network Resource Service Data Handler Service Information Service Application Middleware Layer Network Resource Middleware Layer Connectivity and Fabric Layers  OGSI-ification API NRS Grid Service API DTS API Optical path control

allocate path de-allocate path #1 Transfer time (sec)  #2 Transfer Finesse Task 2: Characterize overall utilization

NORTEL NETWORKS CONFIDENTIAL 100s of transactions per second Remote storage / processing location Dynamically provisioned carrier or large enterprise network – switched lambdas and sub-lambdas Demonstrator, a Notional View

NORTEL NETWORKS CONFIDENTIAL BIGBANK Records/second: 16K records/second Record size: 4 KB Queue Load: 1,245,726 records 4,982,904,000 bytes Queue Fill rate: 64 Mbytes/sec Next Sched. Queue Delivery: 2:35 pm Delivery countdown: 33 sec Burst duration: 150 sec Last burst throughput: 610 Mbps Accumulation period: constant Stocks-R-Us Records/second: 14K records/second Record size: 2 KB Queue Load: 70 records 140,000 bytes Queue Fill rate: 28 Mbytes/sec Next Sched. Queue Delivery: IN PROCESS Delivery countdown: IN PROCESS Burst duration: 90 sec Last burst throughput: 580 Mbps Accumulation period: constant Dynamically Provisioned Lambda Mesh POP Carrier Current Demonstrator (Supercomm, 0604)

Conclusions A journey past “bit-blasting” has begun For rich λ semantics, it’s key to define proper layers –W–Web Service mechanisms dominate the upper layers –T–The ASTN-based OMNInet control plane proves solid foundation and handy separation of concerns –T–The combination gives preliminary confirmation of scaling New work items –S–Simulation + empirical validation with large(r) populations –I–Integration with workflow languages –A–AAA and data path security –I–Integration with a Grid Community Scheduler