Title :
Transparent Multi-hop Protocol Termination
Author :
Karl, Maximilian ; Herfet, T.
Author_Institution :
Telecommun. Lab., Saarland Univ., Saarbrucken, Germany
Abstract :
According to Cisco´s forecast by the end of 2016 the global annual IP traffic will surpass 1.3 zettabytes and mobile traffic will reach a volume of 11.2 exabytes per month in 2017. Thus, a main requirement for future networks is high reliability and efficiency to cope with the associated quality of service demands. Hence, a vital interaction between error-correction, network technologies and suitable network resource utilization constitute a hard challenge for traffic engineers. In prior work it has been shown that the data distribution with traditional endto-end schemes is less optimal compared to multi-hop schemes, that is treating network segments individually. In this paper we present a theoretical analysis based on Shannon´s coding theorem that concludes a promising data-rate reduction from the segmentation approach. Additionally, we propose a transparent protocol termination mechanism for software-defined networks (SDN) that allows to segment an end-to-end transmission path without any modification at the sending or receiving devices. Eventually, a detailed implementation approach for SDNs running Open Flow is given.
Keywords :
IP networks; data communication; error correction; mobile radio; protocols; quality of service; software radio; telecommunication traffic; Cisco; IP traffic; OpenFlow; SDN; Shannon coding theorem; data-rate reduction; end-to-end schemes; end-to-end transmission path; error-correction; mobile traffic; multihop schemes; network resource utilization; network technologies; protocol termination mechanism; quality of service demands; receiving devices; segmentation approach; software-defined networks; traffic engineers; transparent multihop protocol termination; zettabytes; Channel coding; IP networks; Ports (Computers); Protocols; Receivers; Redundancy; Relays; Congestion Avoidance; Multi-Hop Transmission; OpenFlow; Software Defined Networking;
Conference_Titel :
Advanced Information Networking and Applications (AINA), 2014 IEEE 28th International Conference on
Conference_Location :
Victoria, BC
Print_ISBN :
978-1-4799-3629-8
DOI :
10.1109/AINA.2014.35