A Framework for Wildfire Risk Assessment to Electric Grid

Wildfires can cause catastrophic damage to the surrounding environment and pose substantial challenges to the reliability and resiliency of the electric grid. Recently, wildfire incidents have increased, and electric utilities are facing numerous challenges in maintaining seamless operation of the p...

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Main Authors: Jubair Yusuf, Holly Eagleston, Michelle Bester, Brian J. Pierre
Format: Article
Language:English
Published: IEEE 2025-01-01
Series:IEEE Access
Subjects:
Online Access:https://ieeexplore.ieee.org/document/11053845/
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author Jubair Yusuf
Holly Eagleston
Michelle Bester
Brian J. Pierre
author_facet Jubair Yusuf
Holly Eagleston
Michelle Bester
Brian J. Pierre
author_sort Jubair Yusuf
collection DOAJ
description Wildfires can cause catastrophic damage to the surrounding environment and pose substantial challenges to the reliability and resiliency of the electric grid. Recently, wildfire incidents have increased, and electric utilities are facing numerous challenges in maintaining seamless operation of the power system. In this paper, a data-driven framework is proposed to assess the spatio-temporal aspects of wildfires on the power system. To illustrate this approach, we utilize data from two existing power networks in the southwestern-US, including corresponding fire risk values for these geographical locations. This methodology aims to establish a correlation between the wildfire risks to the power grid models, leveraging the geographical attributes of transmission lines. Subsequently, power flow is solved using dynamic power grid models in Positive Sequence Load Flow (PSLF) to demonstrate the damages caused by wildfires using probabilities representing wildfire risks and fire arrival times based on single fire growth, respectively. Additionally, grid hardening techniques and component-induced ignition probabilities are incorporated in the analysis to provide a comparative evaluation of the effects on power grids with grid hardening included. The findings demonstrate that both N-k and N-1-1 contingencies evaluations are required, and the reliability of a system in adverse fire-related conditions can be exacerbated without grid-hardening measures, and the cascading failure probabilities can be significantly increased while component failures are incorporated.
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spelling doaj-art-c7bff8fe9b95465382e856c2d05c58162025-08-20T03:17:32ZengIEEEIEEE Access2169-35362025-01-011311543311544510.1109/ACCESS.2025.358396411053845A Framework for Wildfire Risk Assessment to Electric GridJubair Yusuf0https://orcid.org/0000-0003-1048-0952Holly Eagleston1Michelle Bester2Brian J. Pierre3https://orcid.org/0000-0003-3880-5501Electric Power Systems Research Department, Sandia National Laboratories, Albuquerque, NM, USARemote Sensing Research Department, Sandia National Laboratories, Albuquerque, NM, USAElectric Power Systems Research Department, Sandia National Laboratories, Albuquerque, NM, USAElectric Power Systems Research Department, Sandia National Laboratories, Albuquerque, NM, USAWildfires can cause catastrophic damage to the surrounding environment and pose substantial challenges to the reliability and resiliency of the electric grid. Recently, wildfire incidents have increased, and electric utilities are facing numerous challenges in maintaining seamless operation of the power system. In this paper, a data-driven framework is proposed to assess the spatio-temporal aspects of wildfires on the power system. To illustrate this approach, we utilize data from two existing power networks in the southwestern-US, including corresponding fire risk values for these geographical locations. This methodology aims to establish a correlation between the wildfire risks to the power grid models, leveraging the geographical attributes of transmission lines. Subsequently, power flow is solved using dynamic power grid models in Positive Sequence Load Flow (PSLF) to demonstrate the damages caused by wildfires using probabilities representing wildfire risks and fire arrival times based on single fire growth, respectively. Additionally, grid hardening techniques and component-induced ignition probabilities are incorporated in the analysis to provide a comparative evaluation of the effects on power grids with grid hardening included. The findings demonstrate that both N-k and N-1-1 contingencies evaluations are required, and the reliability of a system in adverse fire-related conditions can be exacerbated without grid-hardening measures, and the cascading failure probabilities can be significantly increased while component failures are incorporated.https://ieeexplore.ieee.org/document/11053845/Burning probabilitydynamic simulationoutagespower systemgrid hardeningwildfire
spellingShingle Jubair Yusuf
Holly Eagleston
Michelle Bester
Brian J. Pierre
A Framework for Wildfire Risk Assessment to Electric Grid
IEEE Access
Burning probability
dynamic simulation
outages
power system
grid hardening
wildfire
title A Framework for Wildfire Risk Assessment to Electric Grid
title_full A Framework for Wildfire Risk Assessment to Electric Grid
title_fullStr A Framework for Wildfire Risk Assessment to Electric Grid
title_full_unstemmed A Framework for Wildfire Risk Assessment to Electric Grid
title_short A Framework for Wildfire Risk Assessment to Electric Grid
title_sort framework for wildfire risk assessment to electric grid
topic Burning probability
dynamic simulation
outages
power system
grid hardening
wildfire
url https://ieeexplore.ieee.org/document/11053845/
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