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Mobility management with distributed mobility routing functions

Author(s)
Chan, Anthony Hing-Hung  
Author(s)
Ernest, P. P.
Xie, J.
Falowo, O. E.
Date Issued
2015
Publisher
Springer
Journal
Telecommunication Systems
Volume
59
Issue
2
Start page
229
End page
246
Abstract
Currently, IP mobility management solutions standardized by IETF rely on a centralized and static mobility approach, whereby a central mobility anchor manages mobility signaling and data traffic forwarding. All data traffic sent to a mobile node (MN) traverse the central mobility anchor regardless the current point of attachment of the MN in the Internet. Consequently, the packets follow a non-optimal path via the central mobility anchor which is typically located in the MN’s home network, and result to increase in packet delivery latency. This paper discusses a distributed mobility management mechanism that releases the burden of the central mobility anchor by splitting the mobility management functions of the mobility anchor and co-locating the mobility routing function at the gateway of each sub-network. This mechanism optimizes the data path of the MN that has moved to visited networks, which reduces the packet delivery latency. Moreover, the mechanism is extended to achieve seamless handover when the MN moves between visited networks. Through simulation under NS-2, the performance of the packet delivery latency, handover delay and packet loss is studied and analyzed with respect to varying network load and increasing distance of the MN’s home network from the visited networks. Simulation results show the improvement in packet delivery latency as compared to using non-optimized paths. Moreover, the results also verify the achievement of seamless handover when an MN moves between visited networks.
URI
https://repository.sfu.edu.hk/handle/sfu/775
DOI
10.1007/s11235-014-9958-4
SFU Affiliated Publication
No
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