$\pi$-ROAD: a Learn-as-You-Go Framework for On-Demand Emergency Slices in V2X Scenarios
Armin Okic, Lanfranco Zanzi, Vincenzo Sciancalepore, Alessandro, Redondi, Xavier Costa-Perez

TL;DR
The paper introduces $$-ROAD, a deep learning framework that detects non-recurring road events in V2X scenarios, enabling proactive emergency network slicing to improve service reliability during critical incidents.
Contribution
It presents a novel deep learning-based approach for automatic detection and classification of road events, facilitating dynamic emergency network slice management in V2X communications.
Findings
Successfully detects and classifies non-recurring road events
Reduces impact of emergency slices on existing services by up to 30%
Validated with real mobile network traces and road event data
Abstract
Vehicle-to-everything (V2X) is expected to become one of the main drivers of 5G business in the near future. Dedicated \emph{network slices} are envisioned to satisfy the stringent requirements of advanced V2X services, such as autonomous driving, aimed at drastically reducing road casualties. However, as V2X services become more mission-critical, new solutions need to be devised to guarantee their successful service delivery even in exceptional situations, e.g. road accidents, congestion, etc. In this context, we propose -ROAD, a \emph{deep learning} framework to automatically learn regular mobile traffic patterns along roads, detect non-recurring events and classify them by severity level. -ROAD enables operators to \emph{proactively} instantiate dedicated \emph{Emergency Network Slices (ENS)} as needed while re-dimensioning the existing slices according to their service…
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Taxonomy
TopicsSoftware System Performance and Reliability · Real-Time Systems Scheduling · Advanced Software Engineering Methodologies
