On Intelligent Hierarchical F-PMIPv6 based Mobility Support for Industrial Mobile Networks

La, Seung-Hoon; Jeong, Jongpil; Koo, Jahwan; Kim, Ung-Mo

doi:10.1016/j.procs.2019.08.026

Cited by 5 publications

(5 citation statements)

References 15 publications

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“…An industrial intelligent fast proxy mobile IPv6 (FPMIPv6) solves the signal efficiency problem in smart factory networking. The scheme 13 provides good performance in terms of the total cost with respect to the sum of the MN and mobility ratio. To support seamless communication, different mobility management protocols have been proposed.…”

Section: Literature Surveymentioning

confidence: 99%

“…The timing diagram of the PMIPv6 is shown in Figure 2. The handover delay associated with the PMIPv6 (τPMIPv6) is given in Equation 1: 13 Yan and Lee, 14 and Berguiga et al 15 Cellular network, WLAN…”

Section: Design Of Pmipv6-based Ids-pdmmmentioning

confidence: 99%

“…where τ L2 is the layer 2 handover delay and τ LMA is the binding management delay which is associated with the MN registration process at LMA through the proxy binding update (PBU) t 13 Yan and Lee, 14 and Berguiga et al 15 Cellular network, WLAN…”

Section: Design Of Pmipv6-based Ids-pdmmmentioning

confidence: 99%

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Optimized seamless handover scheme with information and decision server‐assisted partially distributed mobility management in heterogeneous 5th generation wireless networks

Parasuraman

Rajaraman

2021

Int J Communication

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Summary Existing mobile network architectures are flatter and employ a centralized mobility management (CMM) scheme, where the entire intelligence is focused on the single‐end, which leads to low scalability, lack of dynamic mobility support, suboptimal routing, and insufficiency to support large volumes of data. The fifth‐generation (5G) networks demand high‐speed seamless connections to the best‐connected network irrespective of user position and connectivity. Further, seamless handover has to be carried out between wireless local area network (WLAN), worldwide interoperability for microwave access (WiMAX), universal mobile telecommunication system (UMTS), and long‐term evolution (LTE). This paper aims to propose a distributed mobility management (DMM) solution in order to bring the mobility anchor point nearer to the mobile node (MN) to support the acceptable quality of service (QoS) and quality of experience (QoE) provision to end users. An information and decision server (IDS)‐based partial DMM scheme (IDS‐PDMM) is suggested to support optimized handover in internet protocol (IP)‐based heterogeneous architecture. The IDS estimates the nearest candidate network for MN during handover and thus provides a seamless connection for delay‐sensitive applications. The performance of the presented approach is compared with the existing CMM scheme and the simulation results prove that the IDS‐PDMM efficiently minimizes the handover delay and packet loss rate with guaranteed QoS provision.

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Section: Literature Surveymentioning

confidence: 99%

Section: Design Of Pmipv6-based Ids-pdmmmentioning

confidence: 99%

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Optimized seamless handover scheme with information and decision server‐assisted partially distributed mobility management in heterogeneous 5th generation wireless networks

Parasuraman

Rajaraman

2021

Int J Communication

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“…The gap in the existing techniques embodied in the delay in delivering the transmitted packets and communication overhead with a moving MN. Given the recent advances in software and hardware devices, MNs frequently move with demands to improve delay and overhead and enable intelligent real-time networks [17]. Accordingly, a semi-direct approach is proposed in this paper to reduce the delay and communication overhead with frequently moving MNs.…”

Section: Introductionmentioning

confidence: 99%

Semi-Direct Routing Approach for Mobile IP

Al-Kasasbeh¹

2021

IJACSA

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The Mobile IP (MIP) protocol is used to maintain device connectivity while the device is moving between networks through a permanent IP address and temporary care-of-address (CoA). There are two techniques to implement MIP; these are direct and indirect. The indirect is commonly used in the current industry due to its stability while the mobile host (MH) frequently moves from network to another. However, the indirect technique suffers from the problems of delays and enlargement related to the packet size. The direct technique is more sensitive to frequent mobility, yet it required less transformation overhead with stable mobility. Accordingly, to overcome the disadvantages of both techniques, a semi-direct technique is proposed in this paper. The proposed technique is implemented by minimizing the home agent's interference (HA) with a push notification to the correspondent node (CN) that concerns any modification in the moving MH's CoA. The simulation of the proposed technique, the indirect and the direct routing techniques showed the advantages of the semi-direct routing technique over the conventional approaches. The results showed that the semi-direct approach outperformed the conventional approaches in terms of delay and overhead with frequently moved MH.

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“…Among the global mobility protocols, PMIPv6 [18,19] and HMIPv6 [20] use traffic to locate target addresses in the network and to access top-level gateways. This is applied to the smart factory [21][22][23][24], which is divided into connecting the factory with the factory and connecting the mobile with the mobile. However, when applying the global mobility protocol to communications between adjacent mobile devices, the traffic is less efficient.…”

Section: Introductionmentioning

confidence: 99%

Design and Performance Analysis for Edge Intelligence‐Based F‐PMIPv6 Mobility Support for Smart Manufacturing

Kim

Park

Moon

et al. 2021

Wireless Communications and Mobile Computing

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In this paper, we propose a new mobility management network, i-FP, to be used in the smart factory that continues to develop in the Fourth Industrial Revolution. i-FP was created to solve the current local mobility management problem of legacy frameworks. MN (mobile node) refers to a mobile device in a manufacturing environment that includes workers, production facilities, and AGV. To allow mobile nodes (MNs) to move from one domain to another, i-FP uses three network entities: LFA (Local Factory Anchor), FAG (Factory Access Gateway), and MN, as an extended concept of PMIPv6. Among the three network entities in i-FP, LFA and FAG can act as edge intelligence devices to reduce the handover latency of the MNs. i-FP also uses IP header-swapping mechanisms to prevent traffic overhead and enhance network throughput. We evaluate new framework i-FP, PMIPv6, and HMIPv6, which are legacy protocols of local mobility management, in various ways and evaluate three schemes. We confirm that i-FP works better than do the other network methods used in the smart factory.

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On Intelligent Hierarchical F-PMIPv6 based Mobility Support for Industrial Mobile Networks

Cited by 5 publications

References 15 publications

Optimized seamless handover scheme with information and decision server‐assisted partially distributed mobility management in heterogeneous 5th generation wireless networks

Optimized seamless handover scheme with information and decision server‐assisted partially distributed mobility management in heterogeneous 5th generation wireless networks

Semi-Direct Routing Approach for Mobile IP

Design and Performance Analysis for Edge Intelligence‐Based F‐PMIPv6 Mobility Support for Smart Manufacturing

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