Urban tree drought stress: Sap flow measurements, model validation, and water management simulations

Urban street trees face increasing drought stress due to climate change and continuous urban development, making effective water management strategies essential. This study monitored the transpiration and soil moisture dynamics of five urban Tilia cordata trees in Berlin over two consecutive years t...

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Veröffentlicht in:The Science of the total environment 2024-12, Vol.957, p.177221, Article 177221
Hauptverfasser: Tams, Laura, Paton, Eva, Kluge, Björn
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description Urban street trees face increasing drought stress due to climate change and continuous urban development, making effective water management strategies essential. This study monitored the transpiration and soil moisture dynamics of five urban Tilia cordata trees in Berlin over two consecutive years to understand their transpiration responses under varying urban conditions. The collected data were used to validate the URbanTRee model, which was then applied to simulate different passive irrigation scenarios (system-to-catchment ratios ≤ 1:3) and assess their effectiveness in mitigating drought stress. The URbanTRee model successfully captured seasonal variations in transpiration and soil moisture, identifying all major drought stress periods in 2022, although underestimations were observed towards the end of the season. At the hourly scale, the model reasonably depicted reductions in transpiration during shaded hours on clear-sky days (measured by 55–66 %; modelled by 35–60 %), but overestimations of modelled ETa during hours with partial shading or air temperatures above 30 °C suggest room for improvement. The scenario analysis further demonstrated that, depending on catchment type and tree water demand, system-to-catchment ratios of 1:1–1:2 can substantially decrease, but not fully eliminate drought stress for young urban trees in dry years. These findings highlight the importance of considering site-specific conditions and the limitations of passive irrigation when planning sustainable water management strategies for young urban trees. [Display omitted] •Soil moisture and sap flow were measured at five urban tree sites (Tilia cordata).•First drought stress occurred 4–6 weeks into the vegetation period.•Shading reduced hourly potential transpiration by 55–66 % on clear-sky days.•URbanTRee model performance varied on different timescales.•Increased catchment areas reduce but do not fully eliminate tree drought stress.
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source MEDLINE; ScienceDirect Journals (5 years ago - present)
subjects air
Cities
Climate Change
Droughts
environment
irrigation
model validation
Modelling
Monitoring
Passive irrigation
Plant Transpiration
sap flow
Soil moisture
soil water
Tilia cordata
Transpiration
trees
Trees - physiology
urban development
Urban environment
Water
water management
water stress
watersheds
title Urban tree drought stress: Sap flow measurements, model validation, and water management simulations
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