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arXiv · 2606.17654

5G Network Architecture and Configuration Choices to Support Teleoperated Driving at Scale

M. C. Lucas-Estañ·B. Coll-Perales·M. I. Khan·J. Gozálvez·S. S. Avedisov·O. Altintas·M. Sepulcre
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Abstract

Teleoperated driving (ToD) enables the remote driving or control of vehicles. For this purpose, vehicles must transmit video feeds to the ToD control center so that the remote operator is fully aware of the driving conditions and can safely control the vehicle. 5G (and beyond) networks are fundamental for the deployment of ToD as they can provide the low latency, reliable and broadband connection necessary to connect the vehicle and ToD control center. However, it is unclear whether common 5G network architectures and configurations are well-suited to support the simultaneous teleoperation of multiple vehicles with demanding uplink bandwidth, as current networks are mainly configured to support mobile broadband services. This paper demonstrates that MEC or edge-based 5G networks are better suited to support and scale the ToD service than centralized networks, and quantifies the bandwidth required to simultaneously teleoperate multiple vehicles under various 5G network architectures and configurations, including different duplexing modes and TDD frame structures. Finally, the study shows that the configuration of the control channels can help mitigate the impact that the processing time of the video feeds has on the capacity to support and scale the ToD service.

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M. C. Lucas-Estañ, B. Coll-Perales, M. I. Khan, J. Gozálvez, S. S. Avedisov, O. Altintas, M. Sepulcre. 2026-06-16. 5G Network Architecture and Configuration Choices to Support Teleoperated Driving at Scale. https://doi.org/10.1109/vtc2024-fall63153.2024.10758026

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