Identifying critical components in power networks through machine learning

As modern power systems become more complex, identifying critical components for their reliable operation is becoming increasingly important, especially in dealing with widespread cascading outages from large-scale disturbances. In this context, this paper introduces a novel method for identifying critical components in terms of their contribution to cascading-induced demand not served (DNS), utilizing feature selection techniques integrated with a machine learning classifier model. While existing methods predominantly identify critical assets using DNS, they often overlook the effects of cascading failures. Furthermore, those that do consider cascading failures typically focus solely on line overloading. This work, therefore, introduces a machine learning-based methodology coupled with a cascading failure model, considering protection mechanisms like excitation limits, under/over frequency, and line overloading. Tested on the IEEE 24-bus system, the validation method exhibits strong sensitivity (80.35%-90.03%) and specificity (80.35%-94.10%). Additionally, SHapley Additive exPlanations (SHAP) is used for validation by comparing its results with the proposed method.

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Publication Details

Journal
IET conference proceedings.
Published
2025-02-01
DOI
https://doi.org/10.1049/icp.2024.4655
Primary Topic
Power System Reliability and Maintenance
Type
article
Field-Weighted Citation Impact
0.00
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article

Identifying critical components in power networks through machine learning

Mathaios Panteli, George Paphitis, Balaji V. Venkatasubramanian
IET conference proceedings.
Power System Reliability and Maintenance
article

Identifying critical components in power networks through machine learning

Mathaios Panteli, George Paphitis, Balaji V. Venkatasubramanian
article en

Abstract

As modern power systems become more complex, identifying critical components for their reliable operation is becoming increasingly important, especially in dealing with widespread cascading outages from large-scale disturbances. In this context, this paper introduces a novel method for identifying critical components in terms of their contribution to cascading-induced demand not served (DNS), utilizing feature selection techniques integrated with a machine learning classifier model. While existing methods predominantly identify critical assets using DNS, they often overlook the effects of cascading failures. Furthermore, those that do consider cascading failures typically focus solely on line overloading. This work, therefore, introduces a machine learning-based methodology coupled with a cascading failure model, considering protection mechanisms like excitation limits, under/over frequency, and line overloading. Tested on the IEEE 24-bus system, the validation method exhibits strong sensitivity (80.35%-90.03%) and specificity (80.35%-94.10%). Additionally, SHapley Additive exPlanations (SHAP) is used for validation by comparing its results with the proposed method.

IET conference proceedings.Vol. 2024(29)
Woxsen School of Business (IN), University of Cyprus (CY)
Affordable and clean energy
Openalex Percentile: Top 96%
Power System Reliability and Maintenance
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