Fire from volcanic activity: quantifying the threat from an understudied hazard

Natural hazards can trigger fires that increase the area and severity of impacts beyond that caused by the initiating hazard. For some physical processes, such as earthquake, fires are a well appreciated and studied cascading hazard. However, fire from volcanic activity (FFVA) is a highly dangerous...

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Main Authors: Quah, Jia Yong, Hayes, Josh L., Fitzgerald, Rebecca H., Lerner, Geoffrey A., Jenkins, Susanna F., Wilson, Thomas M., Scheele, Finn, Lukovic, Biljana, Fleischmann, Charles
Other Authors: Asian School of the Environment
Format: Article
Language:English
Published: 2024
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Online Access:https://hdl.handle.net/10356/174049
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Institution: Nanyang Technological University
Language: English
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spelling sg-ntu-dr.10356-1740492024-03-18T15:30:46Z Fire from volcanic activity: quantifying the threat from an understudied hazard Quah, Jia Yong Hayes, Josh L. Fitzgerald, Rebecca H. Lerner, Geoffrey A. Jenkins, Susanna F. Wilson, Thomas M. Scheele, Finn Lukovic, Biljana Fleischmann, Charles Asian School of the Environment Earth Observatory of Singapore Earth and Environmental Sciences Fire Eruption Natural hazards can trigger fires that increase the area and severity of impacts beyond that caused by the initiating hazard. For some physical processes, such as earthquake, fires are a well appreciated and studied cascading hazard. However, fire from volcanic activity (FFVA) is a highly dangerous and largely understudied hazard arising from volcanic activity. To demonstrate the potential destructiveness of this hazard, we develop a FFVA ignition probability model underpinned by a widely applicable fault tree, which identifies the mechanisms that can lead to fire ignition from volcanic activity. By assigning values to each node of the fault tree, our model can be used to consider the relative probabilities associated with different fire ignition mechanisms. We couple this ignition probability model with a fire spread model to evaluate hazardous areas and associated impacts caused by FFVA. To demonstrate the applicability of our model, we use an eruption scenario for volcanic ballistic projectiles in the Auckland Volcanic Field (Aotearoa New Zealand). This case study demonstrates the potential for FFVA to compound and greatly increase the impacts caused by other volcanic hazards. We found that fire ignition and spread could increase the damaged area and monetary losses associated with the initiating hazard alone by more than six and five times, respectively. We suggest that more study is needed to better understand, evaluate, and plan for FFVA. Ministry of Education (MOE) Nanyang Technological University National Research Foundation (NRF) Published version JYQ was supported by Nanyang Technological University CN Yang Scholars Program. JLH, GAL, and SFJ acknowledge funding from AXA (Joint Research Initiative) and GAL and SFJ from the Singapore National Research Foundation (NRF2018NRF-NSFC003ES-010). JLH was supported by the New Zealand Ministry of Business, Innovation and Employment (MBIE) through Hazards and Risk Management programme (Strategic Science Investment Fund, contract C05X1702). TMW and RHF were supported by the DEVORA programme (funded by New Zealand Earthquake Commission | Toka Tu Ake and Auckland Council). This research was supported by the Earth Observatory of Singapore via its funding from the National Research Foundation Singapore and the Singapore Ministry of Education under the Research Centres of Excellence initiative. 2024-03-13T02:14:00Z 2024-03-13T02:14:00Z 2023 Journal Article Quah, J. Y., Hayes, J. L., Fitzgerald, R. H., Lerner, G. A., Jenkins, S. F., Wilson, T. M., Scheele, F., Lukovic, B. & Fleischmann, C. (2023). Fire from volcanic activity: quantifying the threat from an understudied hazard. Fire Safety Journal, 141, 103935-. https://dx.doi.org/10.1016/j.firesaf.2023.103935 0379-7112 https://hdl.handle.net/10356/174049 10.1016/j.firesaf.2023.103935 2-s2.0-85170640617 141 103935 en NRF2018NRF-NSFC003ES-010 Fire Safety Journal © 2023 The Authors. Published by Elsevier Ltd. This is an open access article under the CC BY license (http://creativecommons.org/licenses/by/4.0/). application/pdf
institution Nanyang Technological University
building NTU Library
continent Asia
country Singapore
Singapore
content_provider NTU Library
collection DR-NTU
language English
topic Earth and Environmental Sciences
Fire
Eruption
spellingShingle Earth and Environmental Sciences
Fire
Eruption
Quah, Jia Yong
Hayes, Josh L.
Fitzgerald, Rebecca H.
Lerner, Geoffrey A.
Jenkins, Susanna F.
Wilson, Thomas M.
Scheele, Finn
Lukovic, Biljana
Fleischmann, Charles
Fire from volcanic activity: quantifying the threat from an understudied hazard
description Natural hazards can trigger fires that increase the area and severity of impacts beyond that caused by the initiating hazard. For some physical processes, such as earthquake, fires are a well appreciated and studied cascading hazard. However, fire from volcanic activity (FFVA) is a highly dangerous and largely understudied hazard arising from volcanic activity. To demonstrate the potential destructiveness of this hazard, we develop a FFVA ignition probability model underpinned by a widely applicable fault tree, which identifies the mechanisms that can lead to fire ignition from volcanic activity. By assigning values to each node of the fault tree, our model can be used to consider the relative probabilities associated with different fire ignition mechanisms. We couple this ignition probability model with a fire spread model to evaluate hazardous areas and associated impacts caused by FFVA. To demonstrate the applicability of our model, we use an eruption scenario for volcanic ballistic projectiles in the Auckland Volcanic Field (Aotearoa New Zealand). This case study demonstrates the potential for FFVA to compound and greatly increase the impacts caused by other volcanic hazards. We found that fire ignition and spread could increase the damaged area and monetary losses associated with the initiating hazard alone by more than six and five times, respectively. We suggest that more study is needed to better understand, evaluate, and plan for FFVA.
author2 Asian School of the Environment
author_facet Asian School of the Environment
Quah, Jia Yong
Hayes, Josh L.
Fitzgerald, Rebecca H.
Lerner, Geoffrey A.
Jenkins, Susanna F.
Wilson, Thomas M.
Scheele, Finn
Lukovic, Biljana
Fleischmann, Charles
format Article
author Quah, Jia Yong
Hayes, Josh L.
Fitzgerald, Rebecca H.
Lerner, Geoffrey A.
Jenkins, Susanna F.
Wilson, Thomas M.
Scheele, Finn
Lukovic, Biljana
Fleischmann, Charles
author_sort Quah, Jia Yong
title Fire from volcanic activity: quantifying the threat from an understudied hazard
title_short Fire from volcanic activity: quantifying the threat from an understudied hazard
title_full Fire from volcanic activity: quantifying the threat from an understudied hazard
title_fullStr Fire from volcanic activity: quantifying the threat from an understudied hazard
title_full_unstemmed Fire from volcanic activity: quantifying the threat from an understudied hazard
title_sort fire from volcanic activity: quantifying the threat from an understudied hazard
publishDate 2024
url https://hdl.handle.net/10356/174049
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