Stratospheric water vapour (SWV) is an important component of the Earth's atmosphere as it affects both radiative balance and the chemistry of the atmosphere. Key processes driving changes in SWV include dehydration of air masses transiting the cold-point tropopause (CPT) and methane oxidation. We use a chemistry–climate model to simulate changes in SWV through the 21st century following the four canonical representative concentration pathways (RCPs). Furthermore, we quantify the contribution that methane oxidation makes to SWV following each of the RCPs. Although the methane contribution to SWV maximizes in the upper stratosphere, modelled SWV trends are found to be driven predominantly by warming of the CPT rather than by increasing metha...
Ozone and methane are chemically active climate-forcing agents affected by climate–chemistry interac...
Stratospheric water vapour (SWV) plays a critical role in the climate system by modulating the radia...
Water vapor is an important controlling factor for climate feedback processes. Therefore, t...
Stratospheric water vapour (SWV) is an important component of the Earth's atmosphere as it affects ...
Past and future climate simulations from the Goddard Earth Observing System Chemistry–Climate Model ...
Methane is the second most important greenhouse gas after CO2 and affects atmospheric temperatures ...
An important driver of climate change is stratospheric water vapor (SWV), which in turn is influence...
Methane (CH4) is the second-most important directly emitted greenhouse gas, the atmospheric concentr...
Accurate prediction of future methane abundances following a climate scenario requires understanding...
Stratospheric water vapour is a powerful greenhouse gas. The longest available record from balloon o...
Abstract. The application of general circulation models (GCMs) to stratospheric hemistry and transpo...
An important driver of climate change is stratospheric water vapor (SWV), which in turn is influenc...
The application of general circulation models (GCMs) to stratospheric chemistry and transport both p...
Methane (CH4) is the second most important anthropogenic greenhouse gas. Besides its direct radiativ...
[1] We discuss model experiments valid for the Permian-Triassic boundary in which we explore the imp...
Ozone and methane are chemically active climate-forcing agents affected by climate–chemistry interac...
Stratospheric water vapour (SWV) plays a critical role in the climate system by modulating the radia...
Water vapor is an important controlling factor for climate feedback processes. Therefore, t...
Stratospheric water vapour (SWV) is an important component of the Earth's atmosphere as it affects ...
Past and future climate simulations from the Goddard Earth Observing System Chemistry–Climate Model ...
Methane is the second most important greenhouse gas after CO2 and affects atmospheric temperatures ...
An important driver of climate change is stratospheric water vapor (SWV), which in turn is influence...
Methane (CH4) is the second-most important directly emitted greenhouse gas, the atmospheric concentr...
Accurate prediction of future methane abundances following a climate scenario requires understanding...
Stratospheric water vapour is a powerful greenhouse gas. The longest available record from balloon o...
Abstract. The application of general circulation models (GCMs) to stratospheric hemistry and transpo...
An important driver of climate change is stratospheric water vapor (SWV), which in turn is influenc...
The application of general circulation models (GCMs) to stratospheric chemistry and transport both p...
Methane (CH4) is the second most important anthropogenic greenhouse gas. Besides its direct radiativ...
[1] We discuss model experiments valid for the Permian-Triassic boundary in which we explore the imp...
Ozone and methane are chemically active climate-forcing agents affected by climate–chemistry interac...
Stratospheric water vapour (SWV) plays a critical role in the climate system by modulating the radia...
Water vapor is an important controlling factor for climate feedback processes. Therefore, t...