Mobility Aware Edge Computing Segmentation Towards Localized Orchestration

TL;DR

This paper proposes a mobility-aware segmentation technique for edge computing that improves orchestration efficiency and reduces delay by clustering edge devices based on mobility and latency mapping.

Contribution

It introduces a novel segmentation method combining lax and mobility-based clustering to enhance edge orchestration in highly mobile environments.

Findings

Reduced orchestration delay in simulations

Decreased mobility-related failures

Improved efficiency of edge resource management

Abstract

The current trend in end-user devices' advancements in computing and communication capabilities makes edge computing an attractive solution to pave the way for the coveted ultra-low latency services. The success of the edge computing networking paradigm depends on the proper orchestration of the edge servers. Several Edge applications and services are intolerant to latency, especially in 5G and beyond networks, such as intelligent video surveillance, E-health, Internet of Vehicles, and augmented reality applications. The edge devices underwent rapid growth in both capabilities and size to cope with the service demands. Orchestrating it on the cloud was a prominent trend during the past decade. However, the increasing number of edge devices poses a significant burden on the orchestration delay. In addition to the growth in edge devices, the high mobility of users renders traditional orchestration schemes impractical for contemporary edge networks. Proper segmentation of the edge space becomes necessary to adapt these schemes to address these challenges. In this paper, we introduce a segmentation technique employing lax clustering and segregated mobility-based clustering. We then apply latency mapping to these clusters. The proposed scheme's main objective is to create subspaces (segments) that enable light and efficient edge orchestration by reducing the processing time and the core cloud communication overhead. A bench-marking simulation is conducted with the results showing decreased mobility-related failures and reduced orchestration delay.