Project description DEENESFRITPL Growing climate-smart forest What are the dynamics of subsurface water storage and release? What are the seasonal origins and turnover time of water used by plants? How do plant water uptake depths change when environmental conditions change (e.g. receding groundwater, more frequent droughts)? The answers can help predict vegetation resilience in response to drought. The EU-funded FLAME project will support climate-smart forest as conservation, afforestation and restoration practices at several scales. It will study the resilience of different plant species to climate change. To trace the origin of vegetation water uptake and its residence time in the subsurface, the project will use high-frequency in-situ measurements of stable water isotopes (18O and 2H) in soil and xylem as a unique natural signature. Show the project objective Hide the project objective Objective The time that precipitated water resides in soil (residence time) varies from a few days to several months or even years, and increases with soil depth. How much of the water used by plants originates from the growing season precipitation and how much of it comes from previous events or seasons largely depends on storage capacity, permeability, and residence time of precipitation in soil. It is unclear how the dynamics of subsurface water storage and release, the seasonal origins and turnover time of water used by plants, and plant water uptake depths will change when environmental conditions change (e.g. receding groundwater, more frequent droughts). Yet, they are the most crucial in predicting vegetation resilience in response to drought. Studying the resilience of different plant species to climate change will facilitate promotion of climate-smart forest as conservation, afforestation, and restoration practices at several scales.Previous studies have attempted to improve the mechanistic understanding of ecosystem response to dry conditions or climate change by focusing either on vegetation water availability1 or plant physiological adaptation strategies2-4, but the combined effects of shifting terrestrial water availability and atmospheric demand have not been mechanistically investigated. In order to understand terrestrial ecosystems’ response to a changing climate, it is crucial to characterize precipitation partitioning in terrestrial systems, species-specific water uptake strategies, and plants' adaptive water use efficiency, all in a coupled framework. FLAME will use a newly developed high-frequency in-situ measurements of stable water isotopes (18O and 2H) in soil and xylem as a unique natural signature to trace the origin of vegetation water uptake and its residence time in subsurface. It will combine these observations with a high resolution physically-based water and vegetation uptake model to track water. Fields of science natural sciencesearth and related environmental scienceshydrologyisotope hydrologynatural sciencesbiological sciencesecologyecosystemsnatural sciencesearth and related environmental sciencesatmospheric sciencesclimatologyclimatic changes Programme(s) H2020-EU.1.3. - EXCELLENT SCIENCE - Marie Skłodowska-Curie Actions Main Programme H2020-EU.1.3.2. - Nurturing excellence by means of cross-border and cross-sector mobility Topic(s) MSCA-IF-2020 - Individual Fellowships Call for proposal H2020-MSCA-IF-2020 See other projects for this call Funding Scheme MSCA-IF-EF-RI - RI – Reintegration panel Coordinator UNIVERSITAT ZURICH Net EU contribution € 203 149,44 Address Ramistrasse 71 8006 Zurich Switzerland See on map Region Schweiz/Suisse/Svizzera Zürich Zürich Activity type Higher or Secondary Education Establishments Links Contact the organisation Opens in new window Website Opens in new window Participation in EU R&I programmes Opens in new window HORIZON collaboration network Opens in new window Other funding € 0,00
