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Increased atmospheric vapor pressure deficit reduces global vegetation growth

Science Advances · 2019 · Vol. 5(8) · pp. eaax1396–eaax1396
Wenping YuanYi ZhengShilong PiaoPhilippe CiaisDanica LombardozziYing‐Ping WangYoungryel RyuGuixing ChenWenjie DongHU Zhong-mingAtul K. JainChongya JiangEtsushi KatoShihua LiSebastian LienertShuguang LiuJulia E. M. S. NabelZhangcai QinTimothy A. QuineStephen SitchWilliam K. SmithF. WangChaoyang WuZhiqiang XiaoSong Yang

Abstract

Atmospheric vapor pressure deficit (VPD) is a critical variable in determining plant photosynthesis. Synthesis of four global climate datasets reveals a sharp increase of VPD after the late 1990s. In response, the vegetation greening trend indicated by a satellite-derived vegetation index (GIMMS3g), which was evident before the late 1990s, was subsequently stalled or reversed. Terrestrial gross primary production derived from two satellite-based models (revised EC-LUE and MODIS) exhibits persistent and widespread decreases after the late 1990s due to increased VPD, which offset the positive CO<sub>2</sub> fertilization effect. Six Earth system models have consistently projected continuous increases of VPD throughout the current century. Our results highlight that the impacts of VPD on vegetation growth should be adequately considered to assess ecosystem responses to future climate conditions.

Plant Water Relations and Carbon DynamicsClimate variability and modelsMeteorological Phenomena and SimulationsGreeningVegetation (pathology)Environmental scienceVapour Pressure DeficitAtmospheric pressureAtmospheric sciencesWater vaporClimatologyMeteorologyEcology

MeSH terms

ClimateEnvironmental MonitoringModels, BiologicalPlantsSteamVapor PressureClimate ChangePlant DevelopmentSatellite Imagery

Funding

  • Ministry of Education of the People's Republic of China
  • Ministry of Science and Technology of the People's Republic of China
  • National Key Research and Development Program of China
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Cited by
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New Phytologist · 2020 · 1,944 citations
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