COOKIES: By using this website you agree that we can place Google Analytics Cookies on your device for performance monitoring. |
University of Cambridge > Talks.cam > Signal Processing and Communications Lab Seminars > Routing and Network Coding on Lines, Stars, and Rings
Routing and Network Coding on Lines, Stars, and RingsAdd to your list(s) Download to your calendar using vCal
If you have a question about this talk, please contact Rachel Fogg. Network coding allows each node in a network to combine its input information instead of simply storing, copying, and forwarding data. We present several recent results. The first is an upper bound on network coding rates that applies to wireline, wireless, and mixed wireline/wireless networks. The bound, called a progressive d- separating edge set (or PdE) bound, involves progressively removing edges from a network graph and checking whether certain strengthened d- separation conditions are satisfied. Second, we consider line networks that are elements of larger networks. We show that under both edge and node capacity constraints the optimal code is a combination of rate- splitting, copying, routing, and “butterfly” binary linear network coding. Third, we consider star and ring networks and develop related results. This work was done jointly with Sadegh Tabatabaei and Serap A. Savari. This talk is part of the Signal Processing and Communications Lab Seminars series. This talk is included in these lists:
Note that ex-directory lists are not shown. |
Other listsMacDonald Institute Mathematics Modern British craft re-displayedOther talksCambridge-Lausanne Workshop 2018 - Day 1 In search of amethysts, black gold and yellow gold Epigenetics - Why DNA Is Not Your Destiny Simulating Electricity Prices: negative prices and auto-correlation From Euler to Poincare Towards a whole brain model of perceptual learning 'Honouring Giulio Regeni: a plea for research in risky environments' 70th Anniversary Celebration The frequency of ‘America’ in America Modulating developmental signals allows establishment of cultures of expanded potential stem cells |