FRINK Linked Data Fragments server

Matches in SemOpenAlex for { <https://semopenalex.org/work/W2034384341> ?p ?o ?g. }

• W2034384341 endingPage "231" @default.
• W2034384341 startingPage "218" @default.
• W2034384341 abstract "Knowledge of the virtual water content (VWC) of crops and especially its possible future developments is helpful for improvements in water productivity and water management, which are necessary at global scale due to rising demand for food, the necessity to ease present and future water scarcity, and the reduction of poverty. Using a dynamic global vegetation and water balance model (LPJmL), this study quantifies the VWC of two of the most important crop types worldwide, temperate cereals and maize, at high spatial resolution (0.5°). We analyzed present conditions (1999–2003) and also for the first time also for scenarios of future climate and increasing atmospheric CO2 concentrations (2041–2070; HadCM3, ECHAM5 and CCSM3 climate models, A2 emissions scenario). VWC presently differs significantly among regions: highest values are common in large parts of Africa (>2 m3 kg−1), and lowest values were found e.g. for Central Europe (<0.5 m3 kg−1), indicating that water-use efficiency of crops is much higher in the latter region. The regional patterns of VWC result from complex and interactive processes; the dominant factor is the crop yield level (high VWC values occur most frequently in regions with low yields). Climate change and rising atmospheric CO2 concentration will have non-uniform effects on crop yields and evapotranspiration. Worldwide VWC patterns will change significantly, with a pronounced regional pattern that reflects primarily the changes in yields as driven mainly by regionally decreasing precipitation, increasing temperature and increasing atmospheric CO2 concentration. Although globally the water-use efficiency is projected to increase, many regions—including parts of the US, East and Mediterranean Europe, South Africa, Argentina, Australia and South East Asia—are projected to become less water efficient (higher VWC) for at least one of the crop types. CO2 fertilisation was simulated to generally reduce VWC, though realisation of this effect in the field will depend, for example, on the intensity of nutrient management in the future. The potentially adverse future changes in VWC found here pose a challenge to water management efforts and eventually global trade policies." @default.
• W2034384341 created "2016-06-24" @default.
• W2034384341 creator A5000351388 @default.
• W2034384341 creator A5026096863 @default.
• W2034384341 creator A5079972031 @default.
• W2034384341 creator A5080572301 @default.
• W2034384341 creator A5083109565 @default.
• W2034384341 date "2010-04-01" @default.
• W2034384341 modified "2023-10-12" @default.
• W2034384341 title "Virtual water content of temperate cereals and maize: Present and potential future patterns" @default.
• W2034384341 cites W1536836039 @default.
• W2034384341 cites W1581126928 @default.
• W2034384341 cites W1582568036 @default.
• W2034384341 cites W1838764073 @default.
• W2034384341 cites W1885078460 @default.
• W2034384341 cites W1980853261 @default.
• W2034384341 cites W1982646121 @default.
• W2034384341 cites W1988144647 @default.
• W2034384341 cites W1991818330 @default.
• W2034384341 cites W2002340384 @default.
• W2034384341 cites W2015834247 @default.
• W2034384341 cites W2024903254 @default.
• W2034384341 cites W2040294554 @default.
• W2034384341 cites W2044693537 @default.
• W2034384341 cites W2047884674 @default.
• W2034384341 cites W2057302732 @default.
• W2034384341 cites W2060358176 @default.
• W2034384341 cites W2064311813 @default.
• W2034384341 cites W2065639733 @default.
• W2034384341 cites W2068932138 @default.
• W2034384341 cites W2069451844 @default.
• W2034384341 cites W2070508879 @default.
• W2034384341 cites W2086075858 @default.
• W2034384341 cites W2092425318 @default.
• W2034384341 cites W2104045292 @default.
• W2034384341 cites W2106396746 @default.
• W2034384341 cites W2126950410 @default.
• W2034384341 cites W2131859951 @default.
• W2034384341 cites W2134289299 @default.
• W2034384341 cites W2142231247 @default.
• W2034384341 cites W2144163566 @default.
• W2034384341 cites W2145814228 @default.
• W2034384341 cites W2155343321 @default.
• W2034384341 cites W2158766120 @default.
• W2034384341 cites W2161845053 @default.
• W2034384341 cites W2171486641 @default.
• W2034384341 doi "https://doi.org/10.1016/j.jhydrol.2009.12.011" @default.
• W2034384341 hasPublicationYear "2010" @default.
• W2034384341 type Work @default.
• W2034384341 sameAs 2034384341 @default.
• W2034384341 citedByCount "213" @default.
• W2034384341 countsByYear W20343843412012 @default.
• W2034384341 countsByYear W20343843412013 @default.
• W2034384341 countsByYear W20343843412014 @default.
• W2034384341 countsByYear W20343843412015 @default.
• W2034384341 countsByYear W20343843412016 @default.
• W2034384341 countsByYear W20343843412017 @default.
• W2034384341 countsByYear W20343843412018 @default.
• W2034384341 countsByYear W20343843412019 @default.
• W2034384341 countsByYear W20343843412020 @default.
• W2034384341 countsByYear W20343843412021 @default.
• W2034384341 countsByYear W20343843412022 @default.
• W2034384341 countsByYear W20343843412023 @default.
• W2034384341 crossrefType "journal-article" @default.
• W2034384341 hasAuthorship W2034384341A5000351388 @default.
• W2034384341 hasAuthorship W2034384341A5026096863 @default.
• W2034384341 hasAuthorship W2034384341A5079972031 @default.
• W2034384341 hasAuthorship W2034384341A5080572301 @default.
• W2034384341 hasAuthorship W2034384341A5083109565 @default.
• W2034384341 hasConcept C107054158 @default.
• W2034384341 hasConcept C127313418 @default.
• W2034384341 hasConcept C127413603 @default.
• W2034384341 hasConcept C132651083 @default.
• W2034384341 hasConcept C133830359 @default.
• W2034384341 hasConcept C149207113 @default.
• W2034384341 hasConcept C153294291 @default.
• W2034384341 hasConcept C153823671 @default.
• W2034384341 hasConcept C176783924 @default.
• W2034384341 hasConcept C187320778 @default.
• W2034384341 hasConcept C18903297 @default.
• W2034384341 hasConcept C205649164 @default.
• W2034384341 hasConcept C24939127 @default.
• W2034384341 hasConcept C2776325102 @default.
• W2034384341 hasConcept C39432304 @default.
• W2034384341 hasConcept C51193700 @default.
• W2034384341 hasConcept C6557445 @default.
• W2034384341 hasConcept C66465714 @default.
• W2034384341 hasConcept C81461190 @default.
• W2034384341 hasConcept C86803240 @default.
• W2034384341 hasConcept C88862950 @default.
• W2034384341 hasConcept C91586092 @default.
• W2034384341 hasConceptScore W2034384341C107054158 @default.
• W2034384341 hasConceptScore W2034384341C127313418 @default.
• W2034384341 hasConceptScore W2034384341C127413603 @default.
• W2034384341 hasConceptScore W2034384341C132651083 @default.
• W2034384341 hasConceptScore W2034384341C133830359 @default.
• W2034384341 hasConceptScore W2034384341C149207113 @default.
• W2034384341 hasConceptScore W2034384341C153294291 @default.

• next