Location Update Cost Analysis of Mobile IPv6 Protocols

Mobile IP has been developed to provide the continuous information network access to mobile users. In IP-based mobile networks, location management is an important component of mobility management. This management enables the system to track the location of mobile node between consecutive communications. It includes two important tasks- location update and call delivery. Location update is associated with signaling load. Frequent updates lead to degradation in the overall performance of the network and the underutilization of the resources. It is, therefore, required to devise the mechanism to minimize the update rate. Mobile IPv6 (MIPv6) and Hierarchical MIPv6 (HMIPv6) have been the potential candidates for deployments in mobile IP networks for mobility management. HMIPv6 through studies has been shown with better performance as compared to MIPv6. It reduces the signaling overhead traffic by making registration process local. In this paper, we present performance analysis of MIPv6 and HMIPv6 using an analytical model. Location update cost function is formulated based on fluid flow mobility model. The impact of cell residence time, cell residence probability and user-s mobility is investigated. Numerical results are obtained and presented in graphical form. It is shown that HMIPv6 outperforms MIPv6 for high mobility users only and for low mobility users; performance of both the schemes is almost equivalent to each other.

Authors:



References:
[1] Johnson, D. Perkins, C "Mobility Support in IPv6", IETE Draft, draft
ietf mobileip-ipv6-15 .txt.
[2] Montavont, N. Noel, T., "Handover Management of Mobile Nodes in
IPv6 Networks", IEEE Communication Magazine, Vol. 40. No. 8,
2002,.pp. 38-43.
[3] Choi Y.J., Lee K.B. & Bahk S., "All-IP 4G Network Architecture for
Efficient Mobility & Resource Management", IEEE Wireless
Communications Magazine, vol.14, no. 2, pp.42-46, April 2007.
[4] Vaughan-Nichols S. J., "Mobile IPv6 and the Future of Wireless Internet
Access", IEEE Computer Magazine, vol.36, no.2, pp.18-20, February
2003.
[5] Castellucia C, "HMIPv6: A Hierarchical Mobile IPv6 Proposal",
IEEE/ACM SIGMOBILE Mobile Computing and Communications
Review (MC2R), vol.4, no.1, pp.48-59, January 2000.
[6] Kong K-S., Roh S-J., & Hwang C-S., "Signaling Load of Hierarchical
Mobile IPv6 Protocol in IPv6 Networks", Proc. of PWC 2004, LNCS,
vol.3260, pp.440-450, September 2004.
[7] Pack S., Nam M., Kwon T., & Choi Y., "A Performance comparison of
mobility anchor point selection schemes in Hierarchical Mobile IPv6
networks", Science Direct, Computer Networks, vol.51, no.6, pp.1630-
1642, April 2007.
[8] Jiang Xie, Ian F. Akyildiz, "A Distributed Dynamic Regional Location
Management Scheme for Mobile IP", IEEE INFOCOM 2002,pp. 1069-
1078.
[9] Pack S. & Choi Y., "A Study on Performance of Hierarchical Mobile
IPv6 in IP-Based Cellular Networks", IEICE Transactions on
Communications, vol.E87-B, no.3, pp.462-469, March 2004.
[10] Johnson D., Perkins C., & Arkko J., "Mobility Support in IPv6", RFC
3775. June 2004.
[11] Han Y.H. & Jeong D., "A Comprehensive Study on Handover
Performance of Hierarchical Mobile IPv6", Proc. of EUC 2006, LNCS,
pp.1108-1118, October 2006.
[12] Campbell A.T., Gomez J., Kim S., Wan C-Y., Turanyi Z.R., & Valko
A.G., "Comparison of IP Micromobility Protocols" IEEE Wireless
Communications Magazines, vol.19, no.1, pp.71-82, February 2002.