Foliar water uptake in arid ecosystems: seasonal variability and ecophysiological consequences

Foliar water uptake (FWU) has been reported for different species across several ecosystems types. However, little attention has been given to arid ecosystems, where FWU during dew formation or small rain events could ameliorate water deficits. FWU and their effects on leaf water potential (ψLeaf) w...

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Veröffentlicht in:Oecologia 2020-06, Vol.193 (2), p.337-348
Hauptverfasser: Cavallaro, Agustín, Silleta, Luisina Carbonell, Pereyra, Daniel A., Goldstein, Guillermo, Scholz, Fabián G., Bucci, Sandra J.
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container_issue 2
container_start_page 337
container_title Oecologia
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creator Cavallaro, Agustín
Silleta, Luisina Carbonell
Pereyra, Daniel A.
Goldstein, Guillermo
Scholz, Fabián G.
Bucci, Sandra J.
description Foliar water uptake (FWU) has been reported for different species across several ecosystems types. However, little attention has been given to arid ecosystems, where FWU during dew formation or small rain events could ameliorate water deficits. FWU and their effects on leaf water potential (ψLeaf) were evaluated in grasses and shrubs exploring different soil water sources in a Patagonian steppe. Also, seasonal variability in FWU and the role of cell wall elasticity in determining the effects on? Leaf were assessed. Eleven small rain events (< 8 mm) and 45 days with dew formation were recorded during the study period. All species exhibited FWU after experimental wetting. There was a large variability in FWU across species, from 0.04 mmol m⁻² s⁻¹ in species with deep roots to 0.75 mmol m⁻² s⁻¹ in species with shallow roots. Species-specific mean FWU rates were positively correlated with mean transpiration rates. The increase in ψLeaf after leaf wetting varied between 0.65 MPa and 1.67 MPa across species and seasons. The effects of FWU on ψLeaf were inversely correlated with cell wall elasticity. FWU integrated over both seasons varied between 28 mol m⁻² in species with deep roots to 361 mol m⁻² in species with shallow roots. Taking into account the percentage of coverage of each species, accumulated FWU represented 1.6% of the total annual transpiration of grasses and shrubs in this ecosystem. Despite this low FWU integrated over time compared to transpiration, wetting leaves surfaces can help to avoid larger water deficit during the dry season.
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However, little attention has been given to arid ecosystems, where FWU during dew formation or small rain events could ameliorate water deficits. FWU and their effects on leaf water potential (ψLeaf) were evaluated in grasses and shrubs exploring different soil water sources in a Patagonian steppe. Also, seasonal variability in FWU and the role of cell wall elasticity in determining the effects on? Leaf were assessed. Eleven small rain events (&lt; 8 mm) and 45 days with dew formation were recorded during the study period. All species exhibited FWU after experimental wetting. There was a large variability in FWU across species, from 0.04 mmol m⁻² s⁻¹ in species with deep roots to 0.75 mmol m⁻² s⁻¹ in species with shallow roots. Species-specific mean FWU rates were positively correlated with mean transpiration rates. The increase in ψLeaf after leaf wetting varied between 0.65 MPa and 1.67 MPa across species and seasons. The effects of FWU on ψLeaf were inversely correlated with cell wall elasticity. FWU integrated over both seasons varied between 28 mol m⁻² in species with deep roots to 361 mol m⁻² in species with shallow roots. Taking into account the percentage of coverage of each species, accumulated FWU represented 1.6% of the total annual transpiration of grasses and shrubs in this ecosystem. 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However, little attention has been given to arid ecosystems, where FWU during dew formation or small rain events could ameliorate water deficits. FWU and their effects on leaf water potential (ψLeaf) were evaluated in grasses and shrubs exploring different soil water sources in a Patagonian steppe. Also, seasonal variability in FWU and the role of cell wall elasticity in determining the effects on? Leaf were assessed. Eleven small rain events (&lt; 8 mm) and 45 days with dew formation were recorded during the study period. All species exhibited FWU after experimental wetting. There was a large variability in FWU across species, from 0.04 mmol m⁻² s⁻¹ in species with deep roots to 0.75 mmol m⁻² s⁻¹ in species with shallow roots. Species-specific mean FWU rates were positively correlated with mean transpiration rates. The increase in ψLeaf after leaf wetting varied between 0.65 MPa and 1.67 MPa across species and seasons. 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subjects Aridity
Biomedical and Life Sciences
Cell walls
Dew
Dry season
Ecology
Ecophysiology
Ecosystems
Elasticity
Environmental aspects
Environmental Sciences & Ecology
Grasses
Hydrology/Water Resources
Leaves
Life Sciences
Life Sciences & Biomedicine
Moisture content
PHYSIOLOGICAL ECOLOGY – ORIGINAL RESEARCH
Plant Sciences
Rain
Roots
Science & Technology
Seasonal variation
Seasonal variations
Seasons
Shrubs
Soil
Soil moisture
Soil water
Species
Steppes
Transpiration
Uptake
Water
Water deficit
Water potential
Water uptake
Wetting
title Foliar water uptake in arid ecosystems: seasonal variability and ecophysiological consequences
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