Forest management practices might act as nature-based methods to remove CO2 from the atmosphere and slow anthropogenic climate change and thus support an EU forest-based climate change mitigation strategy. However, the extent to which diversified management actions could lead to quantitatively important changes in carbon sequestration and stocking capacity at the tree level remains to be thoroughly assessed. To that end, we used a state-of-the-science bio-geochemically based forest growth model to simulate effects of multiple forest management scenarios on net primary productivity (NPP) and potential carbon woody stocks (pCWS) under twenty scenarios of climate change in a suite of observed and virtual forest stands in temperate and boreal European forests. Previous modelling experiments indicated that the capacity of forests to assimilate and store atmospheric CO2 in woody biomass is already being attained under business-as-usual forest management practices across a range of climate change scenarios. Nevertheless, we find that on the long-term, with increasing atmospheric CO2 concentration and warming, managed forests show both higher productivity capacity and a larger potential pool size of stored carbon than unmanaged forests as long as thinning and tree harvesting are of moderate intensity.
DALMONECH Daniela;
MARANO Gina;
AMTHOR Jeffrey;
CESCATTI Alessandro;
LINDNER Marcus;
TROTTA Carlo;
COLLALTI Alessio;
2025-09-08
ELSEVIER
JRC128564
1873-2240 (online),
https://www.sciencedirect.com/science/article/pii/S0168192322003902,
https://publications.jrc.ec.europa.eu/repository/handle/JRC128564,
10.1016/j.agrformet.2022.109203 (online),
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