A species-level model for metabolic scaling in trees I. Exploring boundaries to scaling space within and across species

Keyphrases

• Level Model 100%
• Species Level 100%
• Metabolic Scaling 100%
• Sapwood 100%
• Across Species 100%
• Large Vessel 66%
• Treewidth 66%
• Wood 33%
• Adaptation Strategies 33%
• Size Scaling 33%
• Water Stress 33%
• Allometry 33%
• Numerical Model 33%
• Analytic Model 33%
• Conductance 33%
• Gravity Effect 33%
• Heartwood 33%
• Coniferous Wood 33%
• Optimization Approach 33%
• Scaling Exponent 33%
• Tree Structure 33%
• Temperate Trees 33%
• Root-shoot Ratio 33%
• Tracheid 33%
• Water Flow Rate 33%
• Xylem Conduits 33%
• Adaptive Significance 33%
• Biomass Growth Rate 33%
• Hydraulic Resistance 33%
• Biophysical Constraints 33%
• Whole Tree 33%
• Freezing Stress 33%
• Tropical Trees 33%
• Ring-porous Trees 33%
• Conduit Taper 33%
• Diffuse-porous 33%
• Size Invariant 33%
• Tree Water Use 33%
• Intraspecific Scaling 33%
• Tree Hydraulics 33%
• Taper Function 33%
• Tree Bark 33%
• Functional Trait Diversification 33%
• Interconduit pit 33%
• Size Bias 33%
• Water Conduction 33%
• Compensatory Changes 33%
• Leaf Roots 33%

Agricultural and Biological Sciences

• Sapwood 100%
• Water Stress 33%
• Root Shoot Ratio 33%
• Tracheid 33%
• Heartwood 33%
• Xylem 33%
• Allometry 33%
• Water Flow 33%
• Functional Trait 33%