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Impact of soil moisture‐climate feedbacks on CMIP5 projections: First results from the GLACE‐CMIP5 experiment

Sonia I. SeneviratneInstitute for Atmospheric and Climate Science ETH Zurich Zurich SwitzerlandMicah WilhelmInstitute for Atmospheric and Climate Science ETH Zurich Zurich SwitzerlandTanja StanelleInstitute for Atmospheric and Climate Science ETH Zurich Zurich SwitzerlandBart van den HurkKNMI De Bilt NetherlandsStefan HagemannMax Planck Institute for Meteorology Hamburg GermanyAlexis BergGFDL, NOAA Princeton New Jersey USAFrédérique CheruyLMD/IPSL Université Pierre et Marie Curie Paris FranceM. HigginsNCAR Boulder Colorado USAH. E. Markus MeierCentre for Environmental and Climate Research Lund University Lund SwedenVictor BrovkinMax Planck Institute for Meteorology Hamburg GermanyMartin ClaußenMax Planck Institute for Meteorology Hamburg GermanyAgnès DucharneLaboratoire Sisyphe/IPSL Université Pierre et Marie Curie Paris FranceJean‐Louis DufresneLMD/IPSL Université Pierre et Marie Curie Paris FranceKirsten L. FindellGFDL, NOAA Princeton New Jersey USAJoséfine GhattasSorbonne UniversitéDavid M. LawrenceNCAR Boulder Colorado USASergey MalyshevPrinceton University Princeton New Jersey USAMarkku RummukainenCentre for Environmental and Climate Research Lund University Lund SwedenBenjamin SmithDepartment of Physical Geography and Ecosystem Science Lund University Lund Sweden
2013en
ABI

Аннотация

Abstract The Global Land‐Atmosphere Climate Experiment–Coupled Model Intercomparison Project phase 5 (GLACE‐CMIP5) is a multimodel experiment investigating the impact of soil moisture‐climate feedbacks in CMIP5 projections. We present here first GLACE‐CMIP5 results based on five Earth System Models, focusing on impacts of projected changes in regional soil moisture dryness (mostly increases) on late 21st century climate. Projected soil moisture changes substantially impact climate in several regions in both boreal and austral summer. Strong and consistent effects are found on temperature, especially for extremes (about 1–1.5 K for mean temperature and 2–2.5 K for extreme daytime temperature). In the Northern Hemisphere, effects on mean and heavy precipitation are also found in most models, but the results are less consistent than for temperature. A direct scaling between soil moisture‐induced changes in evaporative cooling and resulting changes in temperature mean and extremes is found in the simulations. In the Mediterranean region, the projected soil moisture changes affect about 25% of the projected changes in extreme temperature.

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