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Topology-Aware Space-Time Network Coding in Cellular Networks

Space-time network coding (STNC) is a time-division multiple access (TDMA)-based scheme that combines network coding and space-time coding by allowing relay nodes to combine the information received from different source nodes during the transmission phase and to forward the combined signal to a des...

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Published in:IEEE access 2018-01, Vol.6, p.7565-7578
Main Authors: Torrea-Duran, Rodolfo, Morales Cespedes, Maximo, Plata-Chaves, Jorge, Vandendorpe, Luc, Moonen, Marc
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creator Torrea-Duran, Rodolfo
Morales Cespedes, Maximo
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description Space-time network coding (STNC) is a time-division multiple access (TDMA)-based scheme that combines network coding and space-time coding by allowing relay nodes to combine the information received from different source nodes during the transmission phase and to forward the combined signal to a destination node in the relaying phase. However, STNC schemes require all the relay nodes to overhear the signals transmitted from all the source nodes in the network. They also require a large number of time-slots to achieve full diversity in a multipoint-to-multipoint transmission. Both conditions are particularly challenging for large cellular networks where, assuming a downlink transmission, base stations (BSs) and users only overhear a subset of all the BSs. In this paper, we exploit basic knowledge of the network topology in order to reduce the number of time-slots by allowing simultaneous transmissions from those BSs that do not overhear each other. Our results show that these topology-aware schemes are able to increase the spectral efficiency per time-slot and bit error rate with unequal transmit power and channel conditions.
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subjects Bit error rate
Cellular communication
Cellular networks
Coding
Interference
Knowledge engineering
Network coding
Network topologies
network topology
Nodes
Radio equipment
Relay
Relaying
Relays
Space-time network coding
Spacetime
Synchronization
Time Division Multiple Access
title Topology-Aware Space-Time Network Coding in Cellular Networks
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