Trans-species predictors of tree leaf mass

Tree leaf mass is a small, highly variable, but critical, component of forest ecosystems. Estimating leaf mass on standing trees with models is challenging because leaf mass varies both within and between tree species and at different locations and points in time. Typically, models for estimating tr...

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Veröffentlicht in:Ecological applications 2019-01, Vol.29 (1), p.1-13
Hauptverfasser: Dettmann, Garret T., MacFarlane, David W.
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description Tree leaf mass is a small, highly variable, but critical, component of forest ecosystems. Estimating leaf mass on standing trees with models is challenging because leaf mass varies both within and between tree species and at different locations and points in time. Typically, models for estimating tree leaf mass are species specific, empirical models that predict intraspecific variation from stem diameter at breast height (dbh). Such models are highly limited in their application because there are many other factors beyond tree girth and species that cause leaf mass to vary and because such models provide no way to predict leaf mass for species for which data are not available. We conducted destructive sampling of 17 different species in Michigan, covering multiple life history traits and sizes, to investigate the potential for using a single, “trans-species” model for predicting leaf mass for all the trees in our study. Our results show the most important predictors of tree leaf mass are dbh, five-year basal area increment, crown class, and competition index, none of which are species specific. Species-specific variation could be captured by leaf longevity and shade tolerance. Wood specific gravity was a statistically significant, but marginally important predictor. Together, these variables describing tree size, life-history traits, and competitive environment allowed us to develop a generalized leaf mass model applicable to a diverse set of species, without having to develop species-specific equations.
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source Wiley Online Library Journals Frontfile Complete; Jstor Complete Legacy
subjects biomass
Estimation
foliage
Forest ecosystems
functional traits
Gravity
Herbivores
leaf longevity
Leaves
Life history
shade tolerance
Species
Specific gravity
Statistical analysis
Terrestrial ecosystems
Trees
Wood
title Trans-species predictors of tree leaf mass
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