ADVA provides multi-degree ROADM and GMPLS control plane for NSF demo

NOVEMBER 8, 2006 -- The SuperComputing06 demo dynamically creates application-specific e-science networks that showcase the agility and power of optical networks.

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NOVEMBER 8, 2006 -- ADVA Optical Networking (search for ADVA Optical Networking) today announced its participation in a demonstration at SuperComputing06 (SC06) of dynamic hybrid network services that enable grid computing, high-capacity storage facilities, transport of high-resolution video and visualization applications, networking of scientific instruments such as radio telescopes, and other collaborative cyber resources.

The National Science Foundation (NSF)-funded Dynamic Resource Allocation over GMPLS Optical Networks (search for DRAGON) demonstration--for which ADVA Optical Networking is providing the optical transport infrastructure, including what the company claims is the world's first commercially available, multi-degree reconfigurable optical add/drop multiplexer (ROADM)--shows how optical networks can be instantaneously established on-demand to link scientific resources worldwide to meet the needs of e-science.

SC06, an international conference on high-performance computing, networking, storage and analysis, takes place November 11-17, 2006, at the Tampa (Florida) Convention Center. The NSF DRAGON demonstration dynamically creates application-specific networks that incorporate end systems at several booths (including ADVA Optical Networking's Booth 1542, Xnet's Booth 1848, NASA's Booth 917 and Internet2's Booth 1451) at SC06 and connect to facilities in Asia, Europe, and other sites in North America.

"NSF DRAGON creates dedicated, distributed networking environments that exhibit deterministic, predictable, and repeatable performance capabilities," reports Jerry Sobieski, principle investigator with the NSF DRAGON project. "This demonstration shows how, with the emergence of dynamic hybrid networks, e-science now has the tools to create new global instruments for exploring the universe and new models for international collaboration."

The ADVA Fiber Service Platform (FSP) 3000 brings multi-degree ROADM functionality and Generalized Multiprotocol Label Switching (GMPLS) control plane to the NSF DRAGON network's optical transport layer. ADVA Optical Networking's ROADM technology, obtained in July 2006 via the company's acquisition of Movaz Networks (see "ADVA adds Movaz Networks"), relies on photolithographic micro-electromechanical systems (MEMS), tiny mirrors etched into integrated circuits, to transparently switch very high-speed telecommunications channels through a network.

The GMPLS technology is a set of software protocols that automate the mesh network discovery, inventory, and provisioning process, while increasing the network efficiency with mesh restoration options. Together, these technologies enable all-optical inter-ring switching for support of real-time provisioning and dynamic resource recovery, say ADVA Optical networking representatives. These capabilities allow the NSF DRAGON demonstration to establish dedicated, distributed, application-specific networks in a matter of seconds, hold them for as long as needed, and then release resources when they are no longer required.

ADVA Optical Networking's multi-degree ROADM capabilities have been refined as a direct result of NSF DRAGON collaboration over the past three years since the first installation in 2003. The resulting ROADMs have been deployed in advanced research and commercial carrier networks worldwide. NASA Goddard Space Flight Center in Greenbelt, MD, for example, incorporates the capability to support hurricane-modeling simulations with collaborators at NASA Ames in Mountain View, CA, and elsewhere using the DRAGON testbed. Today, the DRAGON GMPLS software is deployed across the United States, through collaboration with the Internet2 HOPI testbed network, and globally, with deployment in Europe and Japan. Leveraging this reach, researchers at MIT Haystack Observatory link radio telescopes and correlation facilities in Massachusetts, Maryland, Europe, and Japan for groundbreaking Very Long Baseline Interferometry (VLBI) studies.

"Time-critical e-science applications need to dynamically turn up, groom, route, and transport high-capacity services of various protocols," explains Brian P. McCann, chief strategy and marketing officer with ADVA Optical Networking. "All-optical, per-lambda transport is the future of e-science networking, and we're excited to have our FSP 3000 be an important enabler for the DRAGON project."

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The NSF DRAGON demonstration dynamically creates application-specific networks that incorporate end systems at several booths (including ADVA Optical Networking, Xnet, NASA, and Internet2) at SC06.
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