TY - JOUR
T1 - Anchor Free IP Mobility
AU - Al-Khalidi, Mohammed
AU - Thomos, N.
AU - Martin, R.
AU - Al-Naday, M.
AU - Trossen, D.
PY - 2019/1/1
Y1 - 2019/1/1
N2 - Efficient mobility management techniques are critical in providing seamless connectivity and session continuity between a
mobile node and the network during its movement. However, current mobility management solutions generally require a central entity
in the network core, tracking IP address movement and anchoring traffic from source to destination through point-to-point tunnels.
Intuitively, this approach suffers from scalability limitations as it creates bottlenecks in the network, due to sub-optimal routing via the
anchor point. This is often termed “dog-leg” routing. Meanwhile, alternative anchorless, solutions are not feasible due to the current
limitations of the IP semantics, which strongly tie addressing information to location. In contrast, this paper introduces a novel
anchorless mobility solution that overcomes these limitations by exploiting a new path-based forwarding fabric together with emerging
mechanisms from information-centric networking. These mechanisms decouple the end-system IP address from the path based data
forwarding to eliminate the need for anchoring traffic through the network core; thereby, allowing flexible path calculation and service
provisioning. Furthermore, by eliminating the limitation of routing via the anchor point, our approach reduces the network cost
compared to anchored solutions through bandwidth saving while maintaining comparable handover delay. The proposed solution is
applicable to both cellular and large-scale wireless LAN networks that aim to support seamless handover in a single operator domain
scenario. The solution is modeled as a Markov-chain which applies a topological basis to describe mobility. The validity of the proposed
Markovian model was verified through simulation of both random walk mobility on random geometric networks and trace information
from a large-scale, city wide data set. Evaluation results illustrate a significant reduction in the total network traffic cost by 45% or more
when using the proposed solution, compared to Proxy Mobile IPv6.
AB - Efficient mobility management techniques are critical in providing seamless connectivity and session continuity between a
mobile node and the network during its movement. However, current mobility management solutions generally require a central entity
in the network core, tracking IP address movement and anchoring traffic from source to destination through point-to-point tunnels.
Intuitively, this approach suffers from scalability limitations as it creates bottlenecks in the network, due to sub-optimal routing via the
anchor point. This is often termed “dog-leg” routing. Meanwhile, alternative anchorless, solutions are not feasible due to the current
limitations of the IP semantics, which strongly tie addressing information to location. In contrast, this paper introduces a novel
anchorless mobility solution that overcomes these limitations by exploiting a new path-based forwarding fabric together with emerging
mechanisms from information-centric networking. These mechanisms decouple the end-system IP address from the path based data
forwarding to eliminate the need for anchoring traffic through the network core; thereby, allowing flexible path calculation and service
provisioning. Furthermore, by eliminating the limitation of routing via the anchor point, our approach reduces the network cost
compared to anchored solutions through bandwidth saving while maintaining comparable handover delay. The proposed solution is
applicable to both cellular and large-scale wireless LAN networks that aim to support seamless handover in a single operator domain
scenario. The solution is modeled as a Markov-chain which applies a topological basis to describe mobility. The validity of the proposed
Markovian model was verified through simulation of both random walk mobility on random geometric networks and trace information
from a large-scale, city wide data set. Evaluation results illustrate a significant reduction in the total network traffic cost by 45% or more
when using the proposed solution, compared to Proxy Mobile IPv6.
KW - BIER
KW - IP-over-ICN
KW - LTE
KW - SDN
KW - handover
KW - mobile IP
KW - proxy MIPv6
UR - http://www.scopus.com/inward/record.url?scp=85045757466&partnerID=8YFLogxK
UR - http://www.scopus.com/inward/citedby.url?scp=85045757466&partnerID=8YFLogxK
UR - https://www.mendeley.com/catalogue/90f020b0-c0d6-3f9f-9804-3d8a0a9bc020/
U2 - 10.1109/TMC.2018.2828820
DO - 10.1109/TMC.2018.2828820
M3 - Article (journal)
SN - 1558-0660
VL - 18
SP - 56
EP - 69
JO - IEEE Transactions on Mobile Computing
JF - IEEE Transactions on Mobile Computing
IS - 1
M1 - 8344439
ER -