FRINK Linked Data Fragments server

Matches in SemOpenAlex for { <https://semopenalex.org/work/W3121492657> ?p ?o ?g. }

• W3121492657 endingPage "3652" @default.
• W3121492657 startingPage "3635" @default.
• W3121492657 abstract "Abstract. The acceleration of urbanization requires sustainable, adaptive management strategies for land and water use in cities. Although the effects of buildings and sealed surfaces on urban runoff generation and local climate are well known, much less is known about the role of water partitioning in urban green spaces. In particular, little is quantitatively known about how different vegetation types of urban green spaces (lawns, parks, woodland, etc.) regulate partitioning of precipitation into evaporation, transpiration and groundwater recharge and how this partitioning is affected by sealed surfaces. Here, we integrated field observations with advanced, isotope-based ecohydrological modelling at a plot-scale site in Berlin, Germany. Soil moisture and sap flow, together with stable isotopes in precipitation, soil water and groundwater recharge, were measured over the course of one growing season under three generic types of urban green space: trees, shrub and grass. Additionally, an eddy flux tower at the site continuously collected hydroclimate data. These data have been used as input and for calibration of the process-based ecohydrological model EcH2O-iso. The model tracks stable isotope ratios and water ages in various stores (e.g. soils and groundwater) and fluxes (evaporation, transpiration and recharge). Green water fluxes in evapotranspiration increased in the order shrub (381±1mm)<grass(434±21mm)<trees(489±30 mm), mainly driven by higher interception and transpiration. Similarly, ages of stored water and fluxes were generally older under trees than shrub or grass. The model also showed how the interface between sealed surfaces and green space creates edge effects in the form of “infiltration hotspots”. These can both enhance evapotranspiration and increase groundwater recharge. For example, in our model, transpiration from trees increased by ∼ 50 % when run-on from an adjacent sealed surface was present and led to groundwater recharge even during the growing season, which was not the case under trees without run-on. The results form an important basis for future upscaling studies by showing that vegetation management needs to be considered within sustainable water and land use planning in urban areas to build resilience in cities to climatic and other environmental change." @default.
• W3121492657 created "2021-02-01" @default.
• W3121492657 creator A5001331286 @default.
• W3121492657 creator A5013585522 @default.
• W3121492657 creator A5025056531 @default.
• W3121492657 creator A5029627552 @default.
• W3121492657 creator A5037008974 @default.
• W3121492657 creator A5044430336 @default.
• W3121492657 creator A5055606023 @default.
• W3121492657 creator A5082536491 @default.
• W3121492657 date "2021-06-29" @default.
• W3121492657 modified "2023-10-14" @default.
• W3121492657 title "Quantifying the effects of urban green space on water partitioning and ages using an isotope-based ecohydrological model" @default.
• W3121492657 cites W1484697460 @default.
• W3121492657 cites W1981354089 @default.
• W3121492657 cites W1985009243 @default.
• W3121492657 cites W1998043798 @default.
• W3121492657 cites W2033904036 @default.
• W3121492657 cites W2054786046 @default.
• W3121492657 cites W2063520718 @default.
• W3121492657 cites W2071749626 @default.
• W3121492657 cites W2074398030 @default.
• W3121492657 cites W2075356639 @default.
• W3121492657 cites W2079814120 @default.
• W3121492657 cites W2104363184 @default.
• W3121492657 cites W2105765357 @default.
• W3121492657 cites W2111841011 @default.
• W3121492657 cites W2130373714 @default.
• W3121492657 cites W2138763184 @default.
• W3121492657 cites W2145174875 @default.
• W3121492657 cites W2145635192 @default.
• W3121492657 cites W2162063693 @default.
• W3121492657 cites W2162377765 @default.
• W3121492657 cites W2170690812 @default.
• W3121492657 cites W2172841134 @default.
• W3121492657 cites W2346597390 @default.
• W3121492657 cites W2475326444 @default.
• W3121492657 cites W2528878936 @default.
• W3121492657 cites W2586819609 @default.
• W3121492657 cites W2592037311 @default.
• W3121492657 cites W2593931948 @default.
• W3121492657 cites W2618556347 @default.
• W3121492657 cites W2727421007 @default.
• W3121492657 cites W2734341124 @default.
• W3121492657 cites W2757308344 @default.
• W3121492657 cites W2782209841 @default.
• W3121492657 cites W2783369549 @default.
• W3121492657 cites W2788140643 @default.
• W3121492657 cites W2790385616 @default.
• W3121492657 cites W2792772627 @default.
• W3121492657 cites W2889230694 @default.
• W3121492657 cites W2895616158 @default.
• W3121492657 cites W2896131093 @default.
• W3121492657 cites W2898962279 @default.
• W3121492657 cites W2903567724 @default.
• W3121492657 cites W2904679030 @default.
• W3121492657 cites W2916913368 @default.
• W3121492657 cites W2920311718 @default.
• W3121492657 cites W2922325005 @default.
• W3121492657 cites W2944025319 @default.
• W3121492657 cites W2944552773 @default.
• W3121492657 cites W2958197562 @default.
• W3121492657 cites W2964407714 @default.
• W3121492657 cites W2972202920 @default.
• W3121492657 cites W2973990238 @default.
• W3121492657 cites W2982184059 @default.
• W3121492657 cites W2991203657 @default.
• W3121492657 cites W2994406538 @default.
• W3121492657 cites W3008106796 @default.
• W3121492657 cites W3014989981 @default.
• W3121492657 cites W3029065294 @default.
• W3121492657 cites W3034229855 @default.
• W3121492657 cites W3035007711 @default.
• W3121492657 cites W3043526692 @default.
• W3121492657 cites W3085548331 @default.
• W3121492657 cites W3093040513 @default.
• W3121492657 cites W3094975153 @default.
• W3121492657 cites W4231736634 @default.
• W3121492657 cites W4237151101 @default.
• W3121492657 cites W4239865339 @default.
• W3121492657 cites W4249188617 @default.
• W3121492657 cites W659169719 @default.
• W3121492657 cites W999207820 @default.
• W3121492657 doi "https://doi.org/10.5194/hess-25-3635-2021" @default.
• W3121492657 hasPublicationYear "2021" @default.
• W3121492657 type Work @default.
• W3121492657 sameAs 3121492657 @default.
• W3121492657 citedByCount "20" @default.
• W3121492657 countsByYear W31214926572021 @default.
• W3121492657 countsByYear W31214926572022 @default.
• W3121492657 countsByYear W31214926572023 @default.
• W3121492657 crossrefType "journal-article" @default.
• W3121492657 hasAuthorship W3121492657A5001331286 @default.
• W3121492657 hasAuthorship W3121492657A5013585522 @default.
• W3121492657 hasAuthorship W3121492657A5025056531 @default.
• W3121492657 hasAuthorship W3121492657A5029627552 @default.
• W3121492657 hasAuthorship W3121492657A5037008974 @default.
• W3121492657 hasAuthorship W3121492657A5044430336 @default.

• next