4.7 Article

Fire Affects Tree Growth, Water Use Efficiency and Carbon Sequestration Ecosystem Service of Pinus nigra Arnold: A Combined Satellite and Ground-Based Study in Central Italy

Journal

FORESTS
Volume 14, Issue 10, Pages -

Publisher

MDPI
DOI: 10.3390/f14102033

Keywords

intrinsic water use efficiency; satellite analysis; tree-ring; stable isotope; forest-fire

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The Mediterranean basin is highly susceptible to wildfires due to climate and fire-prone vegetation. A study on the impacts of a forest fire in Central Italy on black pine trees was conducted using satellite and terrestrial analyses. Remote sensing is crucial for accurate identification of fire-affected areas, but integration with forest surveys and sampling provides a detailed understanding of fire effects. The research revealed decreased tree growth, altered water usage, and reduced carbon sequestration capacity in the affected area.
The Mediterranean basin is an area particularly exposed to fire risk due to its climate and fire-prone vegetation. In recent decades, the frequency and intensity of wildfires increased, leading to negative effects on forests, such as a decrease in tree growth or an increase in tree mortality, producing a relevant loss of carbon sequestration ecosystem service. This study of the impacts of fires on forests is fundamental for planning adequate forest management strategies aimed at recovering and restoring the affected areas. In this framework, our research delves into the effects of a forest fire that, in 2017, affected a forest of black pine (Pinus nigra Arnold) in Central Italy. Combining satellite and terrestrial analyses, this study evaluated the impact of the fire on tree growth, water use efficiency and carbon sequestration capacity. Our findings highlight the importance of using remote sensing for the accurate identification of fire-affected areas and precise planning of ground-based activities. However, the integration of satellite data with forest surveys and sampling has proven crucial for a detailed understanding of fire's effects on trees. Dendrochronology and stable isotopes have revealed the post-fire growth decline and altered water usage of defoliated trees. Furthermore, the quantification of CO2 sequestration highlighted a significant reduction in carbon uptake by damaged trees, with severe implications for this ecosystem service.

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