An Enhanced Interface Selectivity Technique to Improve the QoS for the Multi-homed Node

Oleiwi, Haider W.; Saeed, Nagham; Al-Taie, Heba L.; Mhawi, Doaa

doi:10.30684/etj.2022.133066.1165

	An Enhanced Interface Selectivity Technique to Improve the QoS for the Multi-homed Node
Engineering and Technology Journal
Article 1, Volume 40, Issue 8, 2022, Pages 1006-1013 PDF (842.11 K)
Document Type: Research Paper
DOI: 10.30684/etj.2022.133066.1165
Authors
Haider W. Oleiwi^* ¹; Nagham Saeed²; Heba L. Al-Taie³; Doaa Mhawi^* ⁴
¹Department of Electronic and Electrical Engineering, Brunel University London, London – UK.
²School of Computing and Engineering, University of West London, London – UK.
³Information and Communication Technologies Center, Ministry of Construction and Housing, Baghdad – Iraq.
⁴computer science, university technology, Baghdad,Iraq
Abstract
The user’s handoff is still an arguable issue that many mobile communication systems face, especially with the exploded growth of users and internet-based applications. There is a critical need for adequate quality of service (QoS) to meet the stringent requirements. This paper aims to study the overall performance and feasibility of several QoS mechanisms with the single-homed and multi-homed networks/nodes fluctuating resource availability. It investigates the adaptability of multi-interfaced multi-homed techniques to enhance the essential governing parameters, i.e., throughput, end-to-end latency, processing time, and jitter. Moreover, the paper introduces an interface selectivity technique for the multi-homed node to adopt the optimal interface, which offers the best services to explore the enhancements of the overall network performance. The overall results show how the introduced mechanism managed to keep the communication going on the multi-homed node. Furthermore, the results show that site multi-homing provides a better overall end-to-end latency over host multi-homing as it supports the entire network.
Highlights
The paper introduces a reliable system, providing a sufficient solution for the associated nodes during hand-offs. It investigates different QoS mechanisms, deploying each mechanism into various interfaces, and overall network performance when nodes switch between available interfaces. It compares overall performance and feasibility of QoS mechanisms with the single-homed and multi-homed networks/nodes (site/host multi-homing) fluctuating resource availability.
Keywords
GPS; INS; GP Predictor; loosely coupled; tightly coupled

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