Design of Fog-based Computing Architecture for Enhancing Secondary Distribution Grid Services Management

Power utility providers have faced an increasing need for the deployment of intelligent solutions consisting of affordable sensing and data-driven technologies to monitor the health of secondary distribution network (SDN). Existing manual-based approaches are not capable of collecting large volumes of real-time operational data to achieving significant monitoring of the SDN network for reliable power distribution. Effective monitoring would require real-time sensing, scalable high-performance computing and appropriate grid-based application for data processing. This paper presents a computing architecture for grid services monitoring to enhance real-time fault management in electrical secondary distribution networks. The platform leverages wireless sensor networks, a hybrid cloud-fog computing architecture, and a heuristic-based application coordination mechanism to efficiently manage grid applications. Experimental results indicate that coordination mechanism improved application workload distribution of up to 70% in fog nodes and 40% to the cloud. A fog-based architecture provided improvements for low latency by 70% compared to cloud-only architectures. This signifies that most of the data processing was pushed to the local fog nodes, which is crucial for fault management applications. compared to a traditional cloud-only approach.

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Publication Details

Journal
Journal of ICT Systems
Published
2024-12-30
DOI
https://doi.org/10.56279/jicts.v2i2.125
Primary Topic
Smart Grid and Power Systems
Type
article
Field-Weighted Citation Impact
0.00

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article

Design of Fog-based Computing Architecture for Enhancing Secondary Distribution Grid Services Management

Gilbert M. Gilbert
Journal of ICT Systems
Smart Grid and Power Systems
article

Design of Fog-based Computing Architecture for Enhancing Secondary Distribution Grid Services Management

Gilbert M. Gilbert
article en

Abstract

Power utility providers have faced an increasing need for the deployment of intelligent solutions consisting of affordable sensing and data-driven technologies to monitor the health of secondary distribution network (SDN). Existing manual-based approaches are not capable of collecting large volumes of real-time operational data to achieving significant monitoring of the SDN network for reliable power distribution. Effective monitoring would require real-time sensing, scalable high-performance computing and appropriate grid-based application for data processing. This paper presents a computing architecture for grid services monitoring to enhance real-time fault management in electrical secondary distribution networks. The platform leverages wireless sensor networks, a hybrid cloud-fog computing architecture, and a heuristic-based application coordination mechanism to efficiently manage grid applications. Experimental results indicate that coordination mechanism improved application workload distribution of up to 70% in fog nodes and 40% to the cloud. A fog-based architecture provided improvements for low latency by 70% compared to cloud-only architectures. This signifies that most of the data processing was pushed to the local fog nodes, which is crucial for fault management applications. compared to a traditional cloud-only approach.

Journal of ICT SystemsVol. 2(2)
The University of Dodoma (TZ)
Styrelsen för Internationellt Utvecklingssamarbete, University of Dar es Salaam
Openalex Percentile: Top 77%
Smart Grid and Power Systems
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