Hybrid Machine Learning Approach for Cyberattack Mitigation of Parallel Converters in a DC Microgrid

Cyberattack susceptibilities are introduced as the communication requirement increases with the incorporation of more renewable energy sources into DC microgrids. Parallel DC- DC converters are utilized to provide high current and supply the load. Nevertheless, these systems are susceptible to cyberattacks that have the potential to disrupt operations and jeopardize stability. Voltage instability may result from the manipulation of communication commands and low-layer control signals. Therefore, in this paper, a cyberattack that specifically targets parallel DC-DC converters is examined in a DC microgrid. A hybrid machine learning-based detection and mitigation strategy is suggested as a means to counteract this threat The false data injection (FDI) attack targeting the converters is investigated within a DC microgrid. The efficacy of the suggested approach is verified via simulations executed for various scenarios within the MATLAB/Simulink environment The technique successfully identifies and blocks FDI attacks, preventing cyberattacks and ensuring the safe operation of the DC microgrid.

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Publication Details

Published
2024-11-03
DOI
https://doi.org/10.1109/iecon55916.2024.10905595
Citations
9
Primary Topic
Smart Grid Security and Resilience
Type
article
Field-Weighted Citation Impact
2.95

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article

Hybrid Machine Learning Approach for Cyberattack Mitigation of Parallel Converters in a DC Microgrid

Naser Souri, Ali Mehrizi‐Sani
9 citations
Smart Grid Security and Resilience
2.95
article

Hybrid Machine Learning Approach for Cyberattack Mitigation of Parallel Converters in a DC Microgrid

Naser Souri, Ali Mehrizi‐Sani
article en
9 citations

Abstract

Cyberattack susceptibilities are introduced as the communication requirement increases with the incorporation of more renewable energy sources into DC microgrids. Parallel DC- DC converters are utilized to provide high current and supply the load. Nevertheless, these systems are susceptible to cyberattacks that have the potential to disrupt operations and jeopardize stability. Voltage instability may result from the manipulation of communication commands and low-layer control signals. Therefore, in this paper, a cyberattack that specifically targets parallel DC-DC converters is examined in a DC microgrid. A hybrid machine learning-based detection and mitigation strategy is suggested as a means to counteract this threat The false data injection (FDI) attack targeting the converters is investigated within a DC microgrid. The efficacy of the suggested approach is verified via simulations executed for various scenarios within the MATLAB/Simulink environment The technique successfully identifies and blocks FDI attacks, preventing cyberattacks and ensuring the safe operation of the DC microgrid.

Virginia Tech (US)
National Science Foundation, Solar Energy Technologies Office
Openalex Percentile: Top 8%
Smart Grid Security and Resilience
2.95
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