Sentences with phrase «atmospheric water vapour»

Changes in cloud cover, increases in atmospheric water vapour, more atmospheric heat transport from lower latitudes and declining sea ice have all been suggested as contributing factors.
In a warming world, atmospheric water vapour content is expected to rise due to an increase in saturation water vapour pressure with air temperature.
The additional atmospheric water vapour implies increased moisture availability for precipitation.
In addition, atmospheric water vapour absorbs a large part of the infrared rays coming from space, which makes data collection difficult — or even impossible — at some wavelengths.
A warmer world has more atmospheric water vapour, and reduces temperature extremes and variability.
As it is very light, hydrogen gas can escape the exoplanets» atmospheres and be detected around the exoplanets with Hubble, acting as a possible indicator of atmospheric water vapour [2].
To claim that the entire system of atmospheric temperature moderation has been described by the fluctuations of atmospheric CO2 content while excluding the other obvious factors such as atmospheric water vapour content, solar flux and orbital mechanics is just nonsense.
Observational evidence indicates that the frequency of the heaviest rainfall events has likely increased within many land regions in general agreement with model simulations that indicate that rainfall in the heaviest events is likely to increase in line with atmospheric water vapour concentration.
By dissecting starlight filtering through the planet's atmosphere [2] the team found clear evidence for atmospheric water vapour.
Foremost among the cooling effects is the energy required to evaporate surface moisture, which produces atmospheric water vapour.
However, human activities have only a small direct influence on the amount of atmospheric water vapour
The average atmospheric water vapour content has increased since at least the 1980s over land and ocean as well as in the upper troposphere.
If you reduce temperature by 1K by removing CO2, there will be a decline in atmospheric water vapour due to the reduced temperature.
Any additional atmospheric water vapour will only remain in the atmosphere for a few days before precipitating and restoring the previous balance.
Simulations and observations of total atmospheric water vapour averaged over oceans agree closely when the simulations are constrained by observed SSTs, suggesting that anthropogenic influence has contributed to an increase in total atmospheric water vapour.
«The far north has indeed been behaving bizarrely in Nov / Dec 2016, setting many new records for temperature, sea ice extent, atmospheric water vapour content, and Arctic amplification (the difference in temperature between the Arctic and northern mid-latitudes)»
Changes in atmospheric water vapour content may amplify Arctic warming.
Even if temperatures or sea surface temperatures are below normal, they are still higher than they would have been, and so too is the atmospheric water vapour amount and thus the moisture available for storms.»
Recent fingerprint work, however, has considered a variety of other climate variables, such as ocean heat content, stratospheric temperatures, and atmospheric water vapour.
They include increases in surface, atmospheric and oceanic temperatures; shrinking of glaciers; decreasing snow cover and sea ice; rising sea level and increasing atmospheric water vapour.
Over the 20th century, based on changes in sea surface temperatures, it is estimated that atmospheric water vapour increased by about 5 % in the atmosphere over the oceans.
(SW - CLR is related to the distribution of atmospheric water vapour and aerosol which has a close link to the model dynamical processes).
a b c d e f g h i j k l m n o p q r s t u v w x y z