Jul 2026· Journal of Industrial Information Integration· Vol 53, pp. 101170· 0 citations· 44 references
Computer Science
TL;DR
This paper proposes the use of AQM as a lightweight and non-intrusive mechanism for assisting mission-critical traffic flows in IIoT networks and demonstrates that multi-queue AQM schemes provide substantial flow isolation and capacity sharing benefits, and significantly improve the performance of mission-critical traffic flows under network pressure.
Abstract
Mission-critical Industrial Internet of Things (IIoT) traffic flows require bounded network latency and jitter guarantees to ensure the safe functioning of critical industrial infrastructure. These flows are typically communicated via commodity network routers with conventional First-In-First-Out (FIFO) buffers. FIFO has proven to be the culprit of the well-known bufferbloat phenomenon, and the deployment of Active Queue Management (AQM) schemes have demonstrated significant performance improvements for latency-sensitive applications over the Internet in the IT domain. However, the bufferbloat phenomenon and the efficacy of AQM schemes have not been studied in IIoT-based OT domain. In this paper, we propose the use of AQM as a lightweight and non-intrusive mechanism for assisting mission-critical traffic flows in IIoT networks. Our experimental results demonstrated that multi-queue AQM schemes provide substantial flow isolation and capacity sharing benefits, and significantly improve the performance of mission-critical traffic flows under network pressure. We further provide deployment recommendations based on our experimental insights.
Simulation results show that the CIOQ switch with VIQs effectively isolates critical flow from the impact of bursty flow originating from other input ports, thereby mitigating delay degradation caused by cross-port interference under the examined traffic conditions.
Takuto Kubo, Shingo Okada, Eiji Oki· IEEE Open Journal of the Com...· 0 citations
As Data Center Networks (DCNs) continue to scale, the limitations of traditional centralized Software-Defined Networking (SDN) architectures become increasingly apparent, as they fail to meet the stringent demands for low latency and quality of service (QoS). In this paper, we propose an adaptive traffic-aware load bal...
Initial evaluations demonstrate that PFC-S can reduce the average flow completion time and effectively prevent congestion spreading, and experimental results show that PFC-S provides better protection for victim flows compared to standard PFC, BFC, and HPCC methods.
Wei-Min Gao, Jia-Wei Huang, Qile Wang et al.· Journal of High Speed Networ...· 0 citations
In data centers, large-scale many-to-one traffic can rapidly exhaust switch buffers and trigger priority-based flow control (PFC) pause, resulting in increased flow completion time (FCT) for uncongested flows. To address this issue, we propose an innovative switch-side fast and accurate flow control (FAFC) scheme. By d...
Cheng-Di Lu, Yuang Chen, Fangyu Zhang et al.· IEEE Transactions on Network...· 0 citations
ProFlow leverages distributed telemetry signals and offline-trained reinforcement learning to identify precursor congestion conditions and proactively reroute protected flows before throughput degradation occurs, demonstrating the effectiveness of anticipatory congestion management.
Sourya Saha, Md. Nurul Absur, Saptarshi Debroy· IEEE Conference on Local Com...· 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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