Latency Reduction in Vehicular Sensing Applications by Dynamic 5G User Plane Function Allocation with Session Continuity

Fuente: arXiv
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Main Authors: Fondo-Ferreiro, Pablo, Candal-Ventureira, David, González-Castaño, Francisco Javier, Gil-Castiñeira, Felipe
Format: Preprint
Published: 2024
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author Fondo-Ferreiro, Pablo
Candal-Ventureira, David
González-Castaño, Francisco Javier
Gil-Castiñeira, Felipe
author_facet Fondo-Ferreiro, Pablo
Candal-Ventureira, David
González-Castaño, Francisco Javier
Gil-Castiñeira, Felipe
contents Vehicle automation is driving the integration of advanced sensors and new applications that demand high-quality information, such as collaborative sensing for enhanced situational awareness. In this work, we considered a vehicular sensing scenario supported by 5G communications, in which vehicle sensor data need to be sent to edge computing resources with stringent latency constraints. To ensure low latency with the resources available, we propose an optimization framework that deploys User Plane Functions (UPFs) dynamically at the edge to minimize the number of network hops between the vehicles and them. The proposed framework relies on a practical Software-Defined-Networking (SDN)-based mechanism that allows seamless re-assignment of vehicles to UPFs while maintaining session and service continuity. We propose and evaluate different UPF allocation algorithms that reduce communications latency compared to static, random, and centralized deployment baselines. Our results demonstrated that the dynamic allocation of UPFs can support latency-critical applications that would be unfeasible otherwise.
format Preprint
id arxiv_https___arxiv_org_abs_2403_19730
institution arXiv
publishDate 2024
record_format arxiv
spellingShingle Latency Reduction in Vehicular Sensing Applications by Dynamic 5G User Plane Function Allocation with Session Continuity
Fondo-Ferreiro, Pablo
Candal-Ventureira, David
González-Castaño, Francisco Javier
Gil-Castiñeira, Felipe
Networking and Internet Architecture
Vehicle automation is driving the integration of advanced sensors and new applications that demand high-quality information, such as collaborative sensing for enhanced situational awareness. In this work, we considered a vehicular sensing scenario supported by 5G communications, in which vehicle sensor data need to be sent to edge computing resources with stringent latency constraints. To ensure low latency with the resources available, we propose an optimization framework that deploys User Plane Functions (UPFs) dynamically at the edge to minimize the number of network hops between the vehicles and them. The proposed framework relies on a practical Software-Defined-Networking (SDN)-based mechanism that allows seamless re-assignment of vehicles to UPFs while maintaining session and service continuity. We propose and evaluate different UPF allocation algorithms that reduce communications latency compared to static, random, and centralized deployment baselines. Our results demonstrated that the dynamic allocation of UPFs can support latency-critical applications that would be unfeasible otherwise.
title Latency Reduction in Vehicular Sensing Applications by Dynamic 5G User Plane Function Allocation with Session Continuity
topic Networking and Internet Architecture
url https://arxiv.org/abs/2403.19730