Elia Vangi

The paper investigates carbon-water coupling by analyzing water-use efficiency metrics across biological scales in a forest, finding discrepancies between model and observational data.

The paper uses a process-based model to assess climate impacts on Italian forest productivity and carbon dynamics under different emission scenarios.

This study examines climate-phenology relationships in Italian forest species using remote sensing and machine learning, finding growing season lengthening and species-specific responses to climate factors.

The paper compares productivity and stability between natural and planted forests, finding natural forests more productive and stable, with different drivers in each type.

This study evaluates urban green spaces connectivity in 28 European capitals using Earth observation and graph theory, finding that network metrics better capture functional connectivity than traditional metrics.

This paper compares two methods for estimating forest volume in small areas using remote sensing data, finding that Mixed-Effects Random Forests provide more accurate and stable predictions than Empirical Best Predictor.

The paper uses a mechanistic model to show decoupling between summer gross primary productivity and tree growth in Mediterranean forests, driven by climate variability and forest legacy.

The paper introduces an R package called R3DFEM to simplify the use of the 3D-CMCC-FEM model for simulating forest ecosystem processes.

This study evaluates the impact of thinning intensity and frequency on ecosystem services in European black pine stands, finding that non-provisioning services benefit from longer intervals and that aesthetic and carbon values exceed timber production.

This study evaluates how climate change and forest management affect carbon and water fluxes in European beech forests using two process-based models across different sites and climate scenarios.

This study quantifies carbon stock loss in Jomoro District, Ghana, after deforestation and land use change, showing significant losses across all land uses compared to primary forest.

The paper uses a model to predict how climate change will reduce forests' ability to act as carbon sinks, despite increasing days of carbon uptake in some forests.

The paper simulates carbon stock and increment dynamics in forests of different ages under climate change scenarios, finding greater age-related differences than climate scenario differences.

This study examines water use efficiency and radial growth in European beech forests across Italy, finding climate-specific responses to drought and heat stress.