The hydrostatic gradient, not light availability, drives height-related variation in Sequoia sempervirens (Cupressaceae) leaf anatomy

Keyphrases

• Light Availability 100%
• Hydrostatic Pressure Gradient 100%
• Sequoia Sempervirens 100%
• Cupressaceae 100%
• Leaf Anatomy 100%
• Tree Crown 66%
• Leaf Structure 66%
• Transfusion Tissue 66%
• Redwood 33%
• Water Stress 33%
• Photosynthetic Capacity 33%
• Gas Phase 33%
• Turgor Pressure 33%
• Conductance 33%
• Area Ratio 33%
• Leaf Expansion 33%
• Tall Trees 33%
• Vascular Density 33%
• Leaf Length 33%
• Functional Traits 33%
• Light Environment 33%
• Tissue Areas 33%
• Leaf Mass 33%
• Water Stress Tolerance 33%
• Paired Samples 33%
• Anatomical Analysis 33%
• Leaf Mesophyll 33%
• Question Use 33%
• Internal Gases 33%
• Gravitational Constraints 33%
• Xylem Dysfunction 33%
• Mesophyll Porosity 33%
• Leaf Width 33%
• Transfusion 33%
• Leaf Thickness 33%
• Hydraulic Buffer 33%
• Leaf Water Status 33%
• Water Act 33%
• Hydrostatic Effect 33%
• Tracheid 33%
• Whole Leaf 33%

Agricultural and Biological Sciences

• Sequoia 100%
• Sequoia Sempervirens 100%
• Cupressaceae 100%
• Water Stress 66%
• Tree Crown 66%
• Branches 33%
• Xylem 33%
• Acclimation 33%
• Turgor Pressure 33%
• Photosynthetic Capacity 33%
• Mesophyll 33%
• Stress Tolerance 33%
• Tracheid 33%
• Leaf Studies 33%