Simulating Daily Large Fire Spread Events in the Northern Front Range, Colorado, USA

Extreme spread events (ESEs), often characterized by high intensity and rapid rates of spread, can overwhelm fire suppression and emergency response capacity, threaten responder and public safety, damage landscapes and communities, and result in high socioeconomic costs and losses. Advances in remot...

Full description

Saved in:
Bibliographic Details
Main Authors: Matthew P. Thompson, Dung Nguyen, Christopher J. Moran, Joe Scott, Yu Wei, Bryce Young
Format: Article
Language:English
Published: MDPI AG 2024-10-01
Series:Fire
Subjects:
Online Access:https://www.mdpi.com/2571-6255/7/11/395
Tags: Add Tag
No Tags, Be the first to tag this record!
_version_ 1846153599934005248
author Matthew P. Thompson
Dung Nguyen
Christopher J. Moran
Joe Scott
Yu Wei
Bryce Young
author_facet Matthew P. Thompson
Dung Nguyen
Christopher J. Moran
Joe Scott
Yu Wei
Bryce Young
author_sort Matthew P. Thompson
collection DOAJ
description Extreme spread events (ESEs), often characterized by high intensity and rapid rates of spread, can overwhelm fire suppression and emergency response capacity, threaten responder and public safety, damage landscapes and communities, and result in high socioeconomic costs and losses. Advances in remote sensing and geospatial analysis provide an improved understanding of observed ESEs and their contributing factors; however, there is a need to improve anticipatory and predictive capabilities to better prepare, mitigate, and respond. Here, leveraging individual-fire day-of-arrival raster outputs from the FSim fire modeling system, we prototype and evaluate methods for the simulation and categorization of ESEs. We describe the analysis of simulation outputs on a case study landscape in Colorado, USA, summarize daily spread event characteristics, threshold and probabilistically benchmark ESEs, spatially depict ESE potential, and describe limitations, extensions, and potential applications of this work. Simulation results generally showed strong alignment with historical patterns of daily growth and the proportion of cumulative area burned in the western US and identified hotspots of high ESE potential. Continued analysis and simulation of ESEs will likely expand the horizon of uses and grow in salience as ESEs become more common.
format Article
id doaj-art-8cc5a7177e4a41738f56ff349263387c
institution Kabale University
issn 2571-6255
language English
publishDate 2024-10-01
publisher MDPI AG
record_format Article
series Fire
spelling doaj-art-8cc5a7177e4a41738f56ff349263387c2024-11-26T18:03:45ZengMDPI AGFire2571-62552024-10-0171139510.3390/fire7110395Simulating Daily Large Fire Spread Events in the Northern Front Range, Colorado, USAMatthew P. Thompson0Dung Nguyen1Christopher J. Moran2Joe Scott3Yu Wei4Bryce Young5Pyrologix, Vibrant Planet, Missoula, MT 59802, USADepartment of Forest and Rangeland Stewardship, Colorado State University, Fort Collins, CO 80523, USAPyrologix, Vibrant Planet, Missoula, MT 59802, USAPyrologix, Vibrant Planet, Missoula, MT 59802, USADepartment of Forest and Rangeland Stewardship, Colorado State University, Fort Collins, CO 80523, USAPyrologix, Vibrant Planet, Missoula, MT 59802, USAExtreme spread events (ESEs), often characterized by high intensity and rapid rates of spread, can overwhelm fire suppression and emergency response capacity, threaten responder and public safety, damage landscapes and communities, and result in high socioeconomic costs and losses. Advances in remote sensing and geospatial analysis provide an improved understanding of observed ESEs and their contributing factors; however, there is a need to improve anticipatory and predictive capabilities to better prepare, mitigate, and respond. Here, leveraging individual-fire day-of-arrival raster outputs from the FSim fire modeling system, we prototype and evaluate methods for the simulation and categorization of ESEs. We describe the analysis of simulation outputs on a case study landscape in Colorado, USA, summarize daily spread event characteristics, threshold and probabilistically benchmark ESEs, spatially depict ESE potential, and describe limitations, extensions, and potential applications of this work. Simulation results generally showed strong alignment with historical patterns of daily growth and the proportion of cumulative area burned in the western US and identified hotspots of high ESE potential. Continued analysis and simulation of ESEs will likely expand the horizon of uses and grow in salience as ESEs become more common.https://www.mdpi.com/2571-6255/7/11/395wildfirehazardriskmodelingextreme spread events
spellingShingle Matthew P. Thompson
Dung Nguyen
Christopher J. Moran
Joe Scott
Yu Wei
Bryce Young
Simulating Daily Large Fire Spread Events in the Northern Front Range, Colorado, USA
Fire
wildfire
hazard
risk
modeling
extreme spread events
title Simulating Daily Large Fire Spread Events in the Northern Front Range, Colorado, USA
title_full Simulating Daily Large Fire Spread Events in the Northern Front Range, Colorado, USA
title_fullStr Simulating Daily Large Fire Spread Events in the Northern Front Range, Colorado, USA
title_full_unstemmed Simulating Daily Large Fire Spread Events in the Northern Front Range, Colorado, USA
title_short Simulating Daily Large Fire Spread Events in the Northern Front Range, Colorado, USA
title_sort simulating daily large fire spread events in the northern front range colorado usa
topic wildfire
hazard
risk
modeling
extreme spread events
url https://www.mdpi.com/2571-6255/7/11/395
work_keys_str_mv AT matthewpthompson simulatingdailylargefirespreadeventsinthenorthernfrontrangecoloradousa
AT dungnguyen simulatingdailylargefirespreadeventsinthenorthernfrontrangecoloradousa
AT christopherjmoran simulatingdailylargefirespreadeventsinthenorthernfrontrangecoloradousa
AT joescott simulatingdailylargefirespreadeventsinthenorthernfrontrangecoloradousa
AT yuwei simulatingdailylargefirespreadeventsinthenorthernfrontrangecoloradousa
AT bryceyoung simulatingdailylargefirespreadeventsinthenorthernfrontrangecoloradousa