Research challenges - agile optical networks Tal Lavian

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Presentation transcript:

Research challenges - agile optical networks Tal Lavian

Need for new services Optical networking is evolving Much more bandwidth Agile reconfiguring of light path Need to take advantage of this and tie it to applications and services Need to define the glue and the interface between the applications and lower levels. Can’t do computation in the optical core Need to move the intelligence from the core to the edge. I’d like to find what is the right research in this area and focus on this. Multi Unicast

Streaming media as bandwidth driver Streaming needs big pipes – 2-3 orders or magnitudes more than web surfing. Speed of 3Mbs is about 1GB per hour Constant traffic (can be turn on for hours with no one watching) Web looks like a big traffic driver on the edge – but it is small traffic on the core. One hour web, 10 second a page, 360 pages, 10KB page  3.6MB Multi Unicast

Optical Ethernet – RPR RPR – Resilient Packet Ring – IEEE 802.17 Ethernet over MAN (Ethernet is winning all time) Distributed L2 switch over MAN Can have one part of the same subnet at SF, another part in SJ and SC Virtual organization over MAN with NO routing. Started to be deployed in the field Cost – much cheaper than WAN Multi Unicast

ASON – Automatically Switched Optical Networks Dynamically switch the light path Enabler for many applications Controlled by UNI and NNI – Allow applications to set the light path Allow to add the intelligence into the optical core Multi Unicast

EFM –Ethernet First Mile Ethernet at the first mile start to be attractive. Drive more bandwidth to the end users Three proposals : 22Mbs on the current phone line PON –Passive Optical Network – split the optical link to 4 and additional 8 total 32 customers (60Mbs per residence) Point-to-point optical – more expansive SBC and alike are interested. The tight of way is the main issue. Optical fibers work fine in harsh environment Sewer net, Power line, Gas line, water line. Multi Unicast

Where are the bottlenecks Optical networking is evolving Much more bandwidth Agile reconfiguring of light path As soon as one problem is solved, the bottleneck is moving to a new place Currently it looks like the bottleneck is at the first mile Streaming media - bottleneck push on routers Much more bandwidth in the MAN move the bottlenecks away from the access and the edge Peering points between service provides Multi Unicast

OXC – Optical Cross Connect Optical cross connects – less need for core routing Fat pipes replace core routers with NO delay It looks more like circuit switching instead of packet switching (ouhh) MPLS, MPlS, LDP – Label Distribution Protocol – room for binding it to services on the edge. UNI - User Network Interface , - allow the end machines and edge to send service request to the core NNI – Network Network Interface, - control of the core (if the core agree to provide the service, might say no) Multi Unicast