Divergent hydraulic strategies of two deciduous tree species to deal with drought in the Brazilian semi-arid region

Key message The high-wood-density species displays greater water limitation tolerance, as it maintains leaf transpiration under drought conditions. The relationship between environmental conditions and plant hydraulic safety is essential to understand species’ strategies to minimize damage to their...

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Veröffentlicht in:Trees (Berlin, West) West), 2024-06, Vol.38 (3), p.681-694
Hauptverfasser: Medeiros, Maria, Wright, Cynthia L., de Lima, André Luiz Alves, da Silva Brito, Nielson Dinivan, Souza, Rodolfo, Silva, José Raliuson Inácio, Souza, Eduardo
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container_issue 3
container_start_page 681
container_title Trees (Berlin, West)
container_volume 38
creator Medeiros, Maria
Wright, Cynthia L.
de Lima, André Luiz Alves
da Silva Brito, Nielson Dinivan
Souza, Rodolfo
Silva, José Raliuson Inácio
Souza, Eduardo
description Key message The high-wood-density species displays greater water limitation tolerance, as it maintains leaf transpiration under drought conditions. The relationship between environmental conditions and plant hydraulic safety is essential to understand species’ strategies to minimize damage to their hydraulic structure yet maintain function. In the Brazilian semi-arid, the relationships between rainfall seasonality, hydraulic conductivity, wood density, stomatal conductance, and phenology in different species still needs to be clarified. To better understand these relationships, we selected two deciduous trees species with contrasting wood density: (1) Commiphora leptophloeos (Mart.) J.B. Gillett (low wood density) and (2) Cenostigma pyramidale (Tul.) E. Gagnon & G. P. Lewis (high wood density) from the Caatinga dry forest of northeast Brazil. We tracked monthly measurements of whole-tree hydraulic conductivity, leaf stomatal conductance, leaf transpiration rate, xylem water potential, and phenology. We found that the low-wood-density species had a higher whole-tree hydraulic conductivity and an early leaf flush and fall. In addition, lower leaf transpiration rate and higher water storage capacity maintained high xylem water potential and stomatal conductance values, especially in the rainy season. On the other hand, the high-wood-density species had a lower whole-tree hydraulic conductivity and higher leaf transpiration rate, even during the dry season. These results point to the divergent hydraulic strategies employed by each species, further suggesting opposing hydraulic safety pathways during drought.
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subjects Agriculture
Arid zones
Biomedical and Life Sciences
Conductance
Deciduous trees
Density
Divergence
Drought
Dry forests
Dry season
Environmental conditions
Forestry
Hydraulic structures
Hydraulics
Leaves
Life Sciences
Original Article
Phenology
Plant Anatomy/Development
Plant Pathology
Plant Physiology
Plant Sciences
Plant species
Rainfall
Rainy season
Seasonal variations
Semi arid areas
Semiarid lands
Species
Stomata
Stomatal conductance
Storage capacity
Structure-function relationships
Transpiration
Water potential
Water storage
Wood
Xylem
title Divergent hydraulic strategies of two deciduous tree species to deal with drought in the Brazilian semi-arid region
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