Enabling the future smart grid: an edge computing approach

Advances in the field of edge computing and the emergence of edge-cloud has enabled the monitoring and management of one of the most complex existing systems, the electric grid, which is undergoing a decentralized and ‘smart transition’ towards ‘smart grid’. Advanced Monitoring Infrastructure (AMI) and sensing devices (PMUs, RTUs etc.) combined with advanced communications networking allow the monitoring of the grid parameters, while edge computing capabilities (including hardware acceleration engines, reconfigurable hardware, etc.) enable real-time Transient State Estimation (TSE) of the grid nodes and therefore enabling other smart grid applications, such as preventive maintenance, control and data analytics. In this work, we focus on the processing requirements of TSE and we present an edge-cloud architecture for efficient TSE application. The architecture leverages low-cost hardware acceleration engines at the edge (devices enhanced with FPGA resources) in order to solve the TSE equations effectively and in tight time thresholds, while reducing the transmission of traffic towards the cloud and thus saving bandwidth for more sophisticated smart grid applications.

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Publication Details

Published
2025-04-04
DOI
https://doi.org/10.63438/znjz7249
Primary Topic
Smart Grid Security and Resilience
Type
article
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article

Enabling the future smart grid: an edge computing approach

Michael Birbas, Nikolaos Tzanis, Eleftherios Mylonas, Alexios Birbas
Smart Grid Security and Resilience
article

Enabling the future smart grid: an edge computing approach

Michael Birbas, Nikolaos Tzanis, Eleftherios Mylonas, Alexios Birbas
article en

Abstract

Advances in the field of edge computing and the emergence of edge-cloud has enabled the monitoring and management of one of the most complex existing systems, the electric grid, which is undergoing a decentralized and ‘smart transition’ towards ‘smart grid’. Advanced Monitoring Infrastructure (AMI) and sensing devices (PMUs, RTUs etc.) combined with advanced communications networking allow the monitoring of the grid parameters, while edge computing capabilities (including hardware acceleration engines, reconfigurable hardware, etc.) enable real-time Transient State Estimation (TSE) of the grid nodes and therefore enabling other smart grid applications, such as preventive maintenance, control and data analytics. In this work, we focus on the processing requirements of TSE and we present an edge-cloud architecture for efficient TSE application. The architecture leverages low-cost hardware acceleration engines at the edge (devices enhanced with FPGA resources) in order to solve the TSE equations effectively and in tight time thresholds, while reducing the transmission of traffic towards the cloud and thus saving bandwidth for more sophisticated smart grid applications.

University of Patras (GR)
Openalex Percentile: Top 92%
Smart Grid Security and Resilience
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