Forecasting wildfires in major forest types of India

Severity of wildfires witnessed in different parts of the world in the recent times has posed a significant challenge to fire control authorities. Even when the different fire early warning systems have been developed to provide the quickest warnings about the possible wildfire location, severity, a...

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Main Authors: Manish P. Kale, Asima Mishra, Satish Pardeshi, Suddhasheel Ghosh, D. S. Pai, Parth Sarathi Roy
Format: Article
Language:English
Published: Frontiers Media S.A. 2022-10-01
Series:Frontiers in Forests and Global Change
Subjects:
Online Access:https://www.frontiersin.org/articles/10.3389/ffgc.2022.882685/full
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author Manish P. Kale
Asima Mishra
Satish Pardeshi
Suddhasheel Ghosh
D. S. Pai
Parth Sarathi Roy
author_facet Manish P. Kale
Asima Mishra
Satish Pardeshi
Suddhasheel Ghosh
D. S. Pai
Parth Sarathi Roy
author_sort Manish P. Kale
collection DOAJ
description Severity of wildfires witnessed in different parts of the world in the recent times has posed a significant challenge to fire control authorities. Even when the different fire early warning systems have been developed to provide the quickest warnings about the possible wildfire location, severity, and danger, often it is difficult to deploy the resources quickly to contain the wildfire at a short notice. Response time is further delayed when the terrain is complex. Early warning systems based on physics-based models, such as WRF-FIRE/SFIRE, are computationally intensive and require high performance computing resources and significant data related to fuel properties and climate to generate forecasts at short intervals of time (i.e., hourly basis). It is therefore that when the objective is to develop monthly and yearly forecasts, time series models seem to be useful as they require lesser computation power and limited data (as compared to physics-based models). Long duration forecasts are useful in preparing an efficient fire management plan for optimal deployment of resources in the event of forest fire. The present research is aimed at forecasting the number of fires in different forest types of India on a monthly basis using “Autoregressive Integrated Moving Average” time series models (both univariate and with regressors) at 25 km × 25 km spatial resolution (grid) and developing the fire susceptibility maps using Geographical Information System. The performance of models was validated based on the autocorrelation function (ACF), partial ACF, cumulative periodogram, and Portmanteau (L-Jung Box) test. Both the univariate- and regressor-based models performed equally well; however, the univariate model was preferred due to parsimony. The R software package was used to run and test the model. The forecasted active fire counts were tested against the original 3 years monthly forecasts from 2015 to 2017. The variation in coefficient of determination from 0.94 (for year 1 forecast) to 0.64 (when all the 3-year forecasts were considered together) was observed for tropical dry deciduous forests. These values varied from 0.98 to 0.89 for tropical moist deciduous forest and from 0.97 to 0.88 for the tropical evergreen forests. The forecasted active fire counts were used to estimate the future forest fire frequency ratio, which has been used as an indicator of forest fire susceptibility.
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spelling doaj.art-0e40b03727fc40248151fff20de7b3d72022-12-22T04:37:10ZengFrontiers Media S.A.Frontiers in Forests and Global Change2624-893X2022-10-01510.3389/ffgc.2022.882685882685Forecasting wildfires in major forest types of IndiaManish P. Kale0Asima Mishra1Satish Pardeshi2Suddhasheel Ghosh3D. S. Pai4Parth Sarathi Roy5Centre for Development of Advanced Computing (C-DAC), Pune, IndiaCentre for Development of Advanced Computing (C-DAC), Pune, IndiaCentre for Development of Advanced Computing (C-DAC), Pune, IndiaFaculty of Engineering and Technology, MGM University, Aurangabad, IndiaInstitute of Climate Change Studies (ICCS), Kottayam, IndiaWorld Resources Institute, New Delhi, IndiaSeverity of wildfires witnessed in different parts of the world in the recent times has posed a significant challenge to fire control authorities. Even when the different fire early warning systems have been developed to provide the quickest warnings about the possible wildfire location, severity, and danger, often it is difficult to deploy the resources quickly to contain the wildfire at a short notice. Response time is further delayed when the terrain is complex. Early warning systems based on physics-based models, such as WRF-FIRE/SFIRE, are computationally intensive and require high performance computing resources and significant data related to fuel properties and climate to generate forecasts at short intervals of time (i.e., hourly basis). It is therefore that when the objective is to develop monthly and yearly forecasts, time series models seem to be useful as they require lesser computation power and limited data (as compared to physics-based models). Long duration forecasts are useful in preparing an efficient fire management plan for optimal deployment of resources in the event of forest fire. The present research is aimed at forecasting the number of fires in different forest types of India on a monthly basis using “Autoregressive Integrated Moving Average” time series models (both univariate and with regressors) at 25 km × 25 km spatial resolution (grid) and developing the fire susceptibility maps using Geographical Information System. The performance of models was validated based on the autocorrelation function (ACF), partial ACF, cumulative periodogram, and Portmanteau (L-Jung Box) test. Both the univariate- and regressor-based models performed equally well; however, the univariate model was preferred due to parsimony. The R software package was used to run and test the model. The forecasted active fire counts were tested against the original 3 years monthly forecasts from 2015 to 2017. The variation in coefficient of determination from 0.94 (for year 1 forecast) to 0.64 (when all the 3-year forecasts were considered together) was observed for tropical dry deciduous forests. These values varied from 0.98 to 0.89 for tropical moist deciduous forest and from 0.97 to 0.88 for the tropical evergreen forests. The forecasted active fire counts were used to estimate the future forest fire frequency ratio, which has been used as an indicator of forest fire susceptibility.https://www.frontiersin.org/articles/10.3389/ffgc.2022.882685/fullforecastingARIMAwildfiretime seriesfire alertforest
spellingShingle Manish P. Kale
Asima Mishra
Satish Pardeshi
Suddhasheel Ghosh
D. S. Pai
Parth Sarathi Roy
Forecasting wildfires in major forest types of India
Frontiers in Forests and Global Change
forecasting
ARIMA
wildfire
time series
fire alert
forest
title Forecasting wildfires in major forest types of India
title_full Forecasting wildfires in major forest types of India
title_fullStr Forecasting wildfires in major forest types of India
title_full_unstemmed Forecasting wildfires in major forest types of India
title_short Forecasting wildfires in major forest types of India
title_sort forecasting wildfires in major forest types of india
topic forecasting
ARIMA
wildfire
time series
fire alert
forest
url https://www.frontiersin.org/articles/10.3389/ffgc.2022.882685/full
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