Projects per year
Abstract
The increasing adoption of IoT-Fog networks in industrial environments demands resilient systems to meet stringent Quality-of-Service (QoS) requirements. Network failures disrupt critical processes and degrade QoS, necessitating innovative predictive failure management. This paper presents the Dynamic Resilient Path Recovery (DYNAPARC) system, an AI-centric solution leveraging Software-Defined Networking (SDN) to predict and mitigate failures in industrial IoT-Fog networks (IIoT).
DYNAPARC integrates AI-based reliability prediction model with SDN's programmable architecture and routing protocols to enhance resilience. A hybrid approach combines proactive and reactive methods: secondary paths are pre-installed (proactively) for immediate failover during primary link failures, while new alternative paths are dynamically calculated in real-time (reactively) for multiple failures, ensuring adaptive routing. To quantify the system’s performance, a novel Network Performance Score (N) measures QoS under failure conditions. Simulations show that DYNAPARC maintains an N score above 0.975135 before and after failures, outperforming traditional reactive and proactive methods. Integrating machine learning in the SDN controller significantly reduces packet loss by selecting the most reliable paths. These results highlight the potential of AI-driven prediction and SDN to achieve predictive reliability, ensuring superior resilience, fast recovery, and efficient traffic management in fog-based IIoT environments.
DYNAPARC integrates AI-based reliability prediction model with SDN's programmable architecture and routing protocols to enhance resilience. A hybrid approach combines proactive and reactive methods: secondary paths are pre-installed (proactively) for immediate failover during primary link failures, while new alternative paths are dynamically calculated in real-time (reactively) for multiple failures, ensuring adaptive routing. To quantify the system’s performance, a novel Network Performance Score (N) measures QoS under failure conditions. Simulations show that DYNAPARC maintains an N score above 0.975135 before and after failures, outperforming traditional reactive and proactive methods. Integrating machine learning in the SDN controller significantly reduces packet loss by selecting the most reliable paths. These results highlight the potential of AI-driven prediction and SDN to achieve predictive reliability, ensuring superior resilience, fast recovery, and efficient traffic management in fog-based IIoT environments.
Original language | English |
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Title of host publication | DYNAPARC: AI-Driven Predictive Path Failure Management for Industrial IoT-Fog Networks |
Publisher | IEEE Communications Society |
Publication status | Published - 22 May 2025 |
Event | IEEE International Conference on Computer Communications - London, United Kingdom Duration: 19 May 2025 → 22 May 2025 |
Conference
Conference | IEEE International Conference on Computer Communications |
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Country/Territory | United Kingdom |
City | London |
Period | 19/05/25 → 22/05/25 |
Bibliographical note
© IEEE, 2025. This is an author-produced version of the published paper. Uploaded in accordance with the University’s Research Publications and Open Access policy.Projects
- 2 Active
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REMOTE: Resilient and Secure Multi-Access Interoperable Communication Fabric for TinyEdge
Yadav, P. (Principal investigator)
1/05/24 → 30/04/27
Project: Research project (funded) › Research
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CHEDDAR Communications Hub for Empowering Distributed ClouD Computing Applications and Research
Yadav, P. (Principal investigator), Calinescu, R. (Co-investigator) & Lucamarini, M. (Co-investigator)
1/06/23 → 31/05/26
Project: Research project (funded) › Research