But should one not expect
less water evaporation with decreased insolation?
Not exact matches
The main advantages of drip irrigation are that it conserves
water because
less is lost to
evaporation, and it efficiently delivers
water to individual plants.
Less than one percent of the world's
water is liquid fresh
water, and scientific studies suggest that a majority of U.S. and global fresh
water is now at risk because of increasing consumption,
evaporation and pollution.
In addition,
less ice cover can lead to more
evaporation and lower
water levels while warmer
water contributes to more algal blooms and impaired
water quality, she says.
In addition, if there is
less water being absorbed in the
evaporation process, the sun's energy will just be going into the atmosphere, instead of being absorbed, and that could exacerbate global warming.
Less glacial runoff = less water to dam More drought = less water to dam Hotter, dryer conditions = faster evaporation from dam reservo
Less glacial runoff =
less water to dam More drought = less water to dam Hotter, dryer conditions = faster evaporation from dam reservo
less water to dam More drought =
less water to dam Hotter, dryer conditions = faster evaporation from dam reservo
less water to dam Hotter, dryer conditions = faster
evaporation from dam reservoirs.
... the higher up you go the
less water vapor you normally get because it is too cold to have available
water vapor (the rate of condensation strongly exceeds the rate of
evaporation)... unless you warm it and «suddenly
water vapor just appears» where it was mostly absent before.
However, with me at least, a bit part of the deal is the increased acidity reducing fish harvests,
water shortages, droughts severely reducing crops (sure — more rain, but more over the ocean,
less on land — and with greater
evaporation before the
water trickles to a dry stream bed), increased heat reducing rice production and other heat sensative crops, the heat waves, etc..
Evaporation from the soil means that plants will have
less water.
For example, even though the volcanic effect is short - lived it will still have an impact on the
water cycle -
less evaporation because it's cooler therefore
less water vapour, lowering temperature a bit more.
Part way there, but no quantitation yet: of the 3.77 W / m ^ 2 radiated back dowwnard, most goes to increased rate of
evaporation of the
water at the surface, and much
less goes to increased mean temp increase at the surface; hence increased rate of non-radiative transfer of heat from surface to upper atmosphere, slight increase in rainfall as hydrological cycle is faster, and slight increase in cloud cover.
Slopes by angle can expose more or
less volume of
water to
evaporation or flooding depending on degree of the slope to the height of
water being displaced.
The lack of»
water vapor» is, because: it was more
water in Arctic ocean without ice cover as» insulation» - >
water absorbed extra coldness and the currents brought extra coldness in North Atlantic = above the ocean is colder =
less evaporation - >
less water vapor produced - >
less moisture going west from central Atlantic.
As for rainfall, in the simplest models, lowered temperatures decrease
evaporation of
water from the surface into the air; and
less water vapor translates to
less rain.
Again for example, during multidecadal periods when El Niño events dominate, the tropical North Atlantic trade winds would be on average weaker than «normal», there would be
less evaporation,
less cool subsurface
waters would be drawn to the surface, and tropical North Atlantic sea surface temperatures would rise.
Because the sea surface gets colder, there is
less evaporation, and thus
less heat transfer from the ocean to the atmosphere during the time it takes for the
water to reach the Arctic Ocean.
LIA wasn't GLOBAL cooling; but colder in Europe, north America — because Arctic ocean had
less ice cover - > was releasing more heat / was accumulating - > radiating + spreading more coldness — currents were taking that extra coldness to Mexican gulf — then to the Mediterranean — because Sahara was increasing creation of dry heat and evaporating extra
water in the Mediterranean — to top up the deficit — gulf stream was faster / that was melting more ice on arctic also as chain reaction — Because Mediterranean doesn't have enough tributaries, to compensate for the
evaporation deficit.
First, higher CO2 concentrations can lead to reduced
evaporation, as the stomata, through which
evaporation from plants takes place, conduct
less water.
As the temperature increases, the
water vapor pressure (hence by inference the
water evaporation rate on non-dry surface) increases supralinearly; that is, a 1K increase from 288 K is much
less than a 1K increase from 308K.
Decreased snowpack has brought
less water into reservoirs (such as Lake Oroville, pictured, in Northern California), while increased temperatures have led to greater
evaporation of surface
water.
11 increased
evaporation leaves salt behind, which increases the density dense
water sinks and is replaced with
less dense
water Example: Mediterranean
to be used for drinking
water Less evaporation from the storage reservoir Little loss of land No damage due to dam failure Pollutants such as mosquitoes and snails can not exist in the reservoirs Siltation does not create any problems
Less vulnerable / below the ground surface in a shallow soil toward the impervious crystalline sub soil.
This causes more wave action which mixes colder
water in from deep sea, this will cause
less evaporation) 4) Negatively: more %
water vapor in the atmosphere 5) Positively:
evaporation itself causes more
evaporation (difference in pressure causes wind and wind and heat together causes more
evaporation)
If the surface is a
water bed (seal to prevent
evaporation) the range and rate of change would be
less than if the surface was a foam mat.
Marine air temperatures and lower troposphere temperatures cool in response because the tropical Pacific is releasing
less heat than normal through
evaporation as a result of the cooler surface
waters.
Early morning also tends to be when wind speeds are lower and, therefore, when
water evaporation is
less likely to occur.