Modelling current and future forest fire susceptibility in north-eastern Germany

<p>Preventing and fighting forest fires has been a challenge worldwide in recent decades. Forest fires alter forest structure and composition; threaten people's livelihoods; and lead to economic losses, as well as soil erosion and desertification. Climate change and related drought events...

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Main Authors: K. H. Horn, S. Vulova, H. Li, B. Kleinschmit
Format: Article
Language:English
Published: Copernicus Publications 2025-01-01
Series:Natural Hazards and Earth System Sciences
Online Access:https://nhess.copernicus.org/articles/25/383/2025/nhess-25-383-2025.pdf
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author K. H. Horn
K. H. Horn
S. Vulova
S. Vulova
H. Li
B. Kleinschmit
author_facet K. H. Horn
K. H. Horn
S. Vulova
S. Vulova
H. Li
B. Kleinschmit
author_sort K. H. Horn
collection DOAJ
description <p>Preventing and fighting forest fires has been a challenge worldwide in recent decades. Forest fires alter forest structure and composition; threaten people's livelihoods; and lead to economic losses, as well as soil erosion and desertification. Climate change and related drought events, paired with anthropogenic activities, have magnified the intensity and frequency of forest fires. Consequently, we analysed forest fire susceptibility (FFS), which can be understood as the likelihood of fire occurrence in a certain area. We applied a random forest (RF) machine learning (ML) algorithm to model current and future FFS in the federal state of Brandenburg (Germany) using topographic, climatic, anthropogenic, soil, and vegetation predictors. FFS was modelled at a spatial resolution of 50 m for current (2014–2022) and future scenarios (2081–2100). Model accuracy ranged between 69 % (<span class="inline-formula">RF<sub>test</sub></span>) and 71 % (leave one year out, LOYO), showing a moderately high model reliability for predicting FFS. The model results underscore the importance of anthropogenic parameters and vegetation parameters in modelling FFS on a regional level. This study will allow forest managers and environmental planners to identify areas which are most susceptible to forest fires, enhancing warning systems and prevention measures.</p>
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institution Kabale University
issn 1561-8633
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language English
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publisher Copernicus Publications
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spelling doaj-art-8e88f3a4a0384b2686c68c7f37a2bf542025-01-27T07:31:06ZengCopernicus PublicationsNatural Hazards and Earth System Sciences1561-86331684-99812025-01-012538340110.5194/nhess-25-383-2025Modelling current and future forest fire susceptibility in north-eastern GermanyK. H. Horn0K. H. Horn1S. Vulova2S. Vulova3H. Li4B. Kleinschmit5Geoinformation in Environmental Planning Lab, Technische Universität Berlin, Straße des 17. Juni 145, 10623 Berlin, GermanyArtificial Intelligence and Land Use Change, Technische Universität Berlin, Straße des 17. Juni 145, 10623 Berlin, GermanyGeoinformation in Environmental Planning Lab, Technische Universität Berlin, Straße des 17. Juni 145, 10623 Berlin, GermanyChair of Smart Water Networks, Technische Universität Berlin, Straße des 17. Juni 135, 10623 Berlin, GermanyGeoinformation in Environmental Planning Lab, Technische Universität Berlin, Straße des 17. Juni 145, 10623 Berlin, GermanyGeoinformation in Environmental Planning Lab, Technische Universität Berlin, Straße des 17. Juni 145, 10623 Berlin, Germany<p>Preventing and fighting forest fires has been a challenge worldwide in recent decades. Forest fires alter forest structure and composition; threaten people's livelihoods; and lead to economic losses, as well as soil erosion and desertification. Climate change and related drought events, paired with anthropogenic activities, have magnified the intensity and frequency of forest fires. Consequently, we analysed forest fire susceptibility (FFS), which can be understood as the likelihood of fire occurrence in a certain area. We applied a random forest (RF) machine learning (ML) algorithm to model current and future FFS in the federal state of Brandenburg (Germany) using topographic, climatic, anthropogenic, soil, and vegetation predictors. FFS was modelled at a spatial resolution of 50 m for current (2014–2022) and future scenarios (2081–2100). Model accuracy ranged between 69 % (<span class="inline-formula">RF<sub>test</sub></span>) and 71 % (leave one year out, LOYO), showing a moderately high model reliability for predicting FFS. The model results underscore the importance of anthropogenic parameters and vegetation parameters in modelling FFS on a regional level. This study will allow forest managers and environmental planners to identify areas which are most susceptible to forest fires, enhancing warning systems and prevention measures.</p>https://nhess.copernicus.org/articles/25/383/2025/nhess-25-383-2025.pdf
spellingShingle K. H. Horn
K. H. Horn
S. Vulova
S. Vulova
H. Li
B. Kleinschmit
Modelling current and future forest fire susceptibility in north-eastern Germany
Natural Hazards and Earth System Sciences
title Modelling current and future forest fire susceptibility in north-eastern Germany
title_full Modelling current and future forest fire susceptibility in north-eastern Germany
title_fullStr Modelling current and future forest fire susceptibility in north-eastern Germany
title_full_unstemmed Modelling current and future forest fire susceptibility in north-eastern Germany
title_short Modelling current and future forest fire susceptibility in north-eastern Germany
title_sort modelling current and future forest fire susceptibility in north eastern germany
url https://nhess.copernicus.org/articles/25/383/2025/nhess-25-383-2025.pdf
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