Optimizing Silvicultural Interventions to Reduce Combustion Energy Load in Forest Ecosystems

Wildfires increasingly threaten forest ecosystems, particularly in arid Mediterranean regions impacted by climate change. This study presents a novel quantitative framework for optimizing silvicultural interventions to reduce combustion energy loads and enhance resource conservation. Using dendrometric equations, biomass removal calculations, and geospatial modeling (Ordinary Kriging, SAGA-GIS and Q-GIS), the methodology evaluates the spatial distribution of calorific energy before and after thinning interventions. The results show that a 20% thinning intervention reduced calorific energy by 13.45% and water demand by 8.38%, while thinning at 30% and 40% intensities achieved even greater reductions. Specifically, thinning reduced the higher calorific potential by 14,000 kJ/m2 and saved approximately 861,390 L of water across the study area. These findings provide actionable insights for forest managers to balance ecological health, optimize thinning practices, and mitigate wildfire risks in vulnerable ecosystems.

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Published
2025-02-06
DOI
https://doi.org/10.3390/eesp2024031016
Primary Topic
Fire effects on ecosystems
Type
article
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article

Optimizing Silvicultural Interventions to Reduce Combustion Energy Load in Forest Ecosystems

Valerio Prosseda
Fire effects on ecosystems
article

Optimizing Silvicultural Interventions to Reduce Combustion Energy Load in Forest Ecosystems

Valerio Prosseda
article en

Abstract

Wildfires increasingly threaten forest ecosystems, particularly in arid Mediterranean regions impacted by climate change. This study presents a novel quantitative framework for optimizing silvicultural interventions to reduce combustion energy loads and enhance resource conservation. Using dendrometric equations, biomass removal calculations, and geospatial modeling (Ordinary Kriging, SAGA-GIS and Q-GIS), the methodology evaluates the spatial distribution of calorific energy before and after thinning interventions. The results show that a 20% thinning intervention reduced calorific energy by 13.45% and water demand by 8.38%, while thinning at 30% and 40% intensities achieved even greater reductions. Specifically, thinning reduced the higher calorific potential by 14,000 kJ/m2 and saved approximately 861,390 L of water across the study area. These findings provide actionable insights for forest managers to balance ecological health, optimize thinning practices, and mitigate wildfire risks in vulnerable ecosystems.

Università degli Studi della Tuscia (IT)
Openalex Percentile: Top 98%
Fire effects on ecosystems
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Optimizing Silvicultural Interventions to Reduce Combustion Energy Load in Forest Ecosystems — Valerio Prosseda · (2025) | TGRS Research Map | TGRS