Abstract
• Introduction
In order to predict the biomass of aerial components of maritime pine stands (Pinus pinaster Ait.), generalized allometric equations were developed using data collected from the southern and northern margins of its geographical area.
• Methods
The data comprised biomass values divided into foliage, branch, stem and minor components collected from 26 trees in Tunisia and 152 trees in France. Some trees were taken from plots receiving fertilisation and irrigation. The equation W = aD b, where W is the biomass, D the stem diameter and a and b are fitted parameters, explained 98% of the variations in the total aerial biomass. The addition of tree age reduced significantly the residual sum of squares for the foliage component. This model explains 79% of the variations in foliage biomass observed.
• Results
To a lesser extent, the age variable also improved the stem and branch models that explain 98% and 71% of the observed sum of squares, respectively. Site variables such as the stocking density, stand basal area, fertilisation or annual precipitation did not reduce the residual sum of squares, suggesting that their putative effects are conveyed through tree growth rate.
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Acknowledgements
This work was achieved during the first author’s Ph D. thesis work in Tunisia supported by a fellowship of the Université 7 Novembre Carthage (Faculté de Bizerte), as well as partly in France funded by INRA, EFPA department and Bordeaux-1 University. This work was achieved within the framework of the Région Aquitaine project “Durabilité de la filière Forêt-Bois de Pin maritime”. The European projects Carbo-Age (FP5) and Carboeurope (FP6) supported the data collection carried out at the Bray, Hermitage L and Bilos sites. A. Porté, D. Bert, F. Danjon, (INRA, UMR Biogeco), F. Bernier (INRA, UE Hermitage) and Tunisian and French technicians participated in the morphometric and biomass measurements.
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Handling Editor: Reinhart Ceulemans
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Shaiek, O., Loustau, D., Trichet, P. et al. Generalized biomass equations for the main aboveground biomass components of maritime pine across contrasting environments. Annals of Forest Science 68, 443–452 (2011). https://doi.org/10.1007/s13595-011-0044-8
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DOI: https://doi.org/10.1007/s13595-011-0044-8