This paper proposes a data-driven solution leveraging Digital Twin (DT) modeling to enhance WTSN management, and demonstrates that delay prediction through WTSN-DT reduces application link latency by up to 96% at the 90th percentile in a real Wi-Fi TSN setting, relative to fixed time slot allocation.
Abstract
Time-Sensitive Networking (TSN) provides guaranteed traffic delivery, making it essential for industrial automation, multimedia, automotive systems, and other areas. Although TSN is well-established in wired networks, wireless systems face extra challenges such as delays, interference, and unstable links. Extending TSN to wireless (WTSN) thus adds complexity, particularly in managing traffic. This paper proposes a data-driven solution leveraging Digital Twin (DT) modeling to enhance WTSN management. We focus on mitigating the residual service time (RST) problem introduced by non-TSN traffic generators, which increases link latency. Implemented in a real Wi-Fi TSN-based environment, our implementation demonstrates that delay prediction through WTSN-DT reduces application link latency by up to 96% at the 90th percentile in a real Wi-Fi TSN setting, relative to fixed time slot allocation.
Real-time communication with guaranteed endto-end latencies is crucial for many emerging cyber-physical systems that integrate mobile devices, such as remote-controlled automated guided vehicles (AGVs) on an industrial shop floor. While IEEE Time-Sensitive Networking (TSN) and 3GPP 5G standards provide the foundation f...
Lucas Haug, Frank Dürr, Christian Becker· International Symposium on W...· 0 citations
Integrating Time-Sensitive Networking (TSN) with wireless systems presents significant challenges, particularly in industrial environments that demand mobility support and operate under rapidly varying wireless channel conditions. While wired TSN scheduling mechanisms are well established, effective solutions for Wirel...
Pablo Avila-Campos, Mahin Ahmed, D. Hamidovic et al.· IEEE International Symposium...· 0 citations
This paper presents a software-defined Time-Sensitive Networking (TSN) architecture that implements the IEEE 802.1Qcr Asynchronous Traffic Shaper (ATS) using Extended Berkeley Packet Filter (eBPF) technology within Linux-based TSN bridges. By moving traffic shaping logic to the kernel level, our solution eliminates the...
Abderrahmane Boulahdour, Miloud Bagaa, Adlen Ksentini et al.· IEEE Transactions on Network...· 0 citations
B-CUBE is proposed, a novel burst-aware 5G-TSN architecture that equips each industrial node with co-deployed TSN and 5G system bridges to enable wired, wireless, and dual-mode transmission, and designs a set of e-cient cross-domain mixed-flow scheduling algorithms.
Yi Xue, Jie Jia, Hao-Yang Mao et al.· Science China Information Sc...· 0 citations
The nascTime framework on OMNeT++/Simu5G is used to evaluate how many TSN endpoints a single 5G NR cell can bridge before per-flow QoS degrades, showing that sub-3 ms TSN deadlines may require radio-configuration changes such as configured grants or higher numerology.
Mohamed A. M. Seliem, U. Roedig, C. Sreenan et al.· 0 citations
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