The impact of atmospheric vapor pressure deficit (VPD) on plant photosynthesis has long
been acknowledged, but large interactions with air temperature (T) and soil moisture (SM) …

Rising atmospheric dryness [vapor pressure deficit (VPD)] can limit photosynthesis and thus
reduce vegetation productivity. Meanwhile, plants can benefit from global warming and the …

Forests have considerable potential to mitigate anthropogenic climate change through
carbon sequestration, as well as provide society with substantial co-benefits. However …

Although evidence of ecosystem productivity to vapor pressure deficit (VPD) and soil
moisture (SM) is abundant, their respective effects remain unclear due to tightly land …

Abstract Part of the Northern Hemisphere has experienced widespread autumn cooling
during the most recent decades despite overall warming, but how this contrasting …

The prominent role of drylands in the global ecosystem calls for a deeper understanding of
the responses of dryland vegetation to ongoing environmental drivers in the context of …

Droughts affect the interannual variability of global land carbon fluxes and are expected to
exert widespread impacts on the carbon cycle given a future climate with more intense and …

The climate change is expected to trigger changes in vegetation phenology, temperature,
and soil moisture (SM), altering the productivity of ecosystems. Despite numerous existing …

Recent studies have reported worldwide vegetation suppression in response to increasing
atmospheric vapor pressure deficit (VPD). Here, we integrate multisource datasets to show …

Flash droughts are often accompanied by large soil and atmospheric moisture deficits, and
the concurrence of flash droughts and high temperature may have a great impact on the …