But clouds
also radiate heat back to earth since clouds are warmer than deep space.
I can relate to a lot of it, my husband
also radiates heat as he sleeps and doesn't want to upgrade to a King yet.
Not exact matches
The vortex
also loses energy by
radiating heat.
Also in the mid-1990s, another group of scientists proposed the now widely accepted mechanism for how lakes can form under glaciers:
Heat radiating from Earth's interior is trapped under the thick, insulating ice sheet, and pressure from the weight of all the ice above it lowers the melting point of the ice at the bottom.
Its proximity to the star might
also make it easier to study, since the planet would
radiate more
heat and orbit more rapidly than any planets lying farther away.
«Our thermal overlay allows sunlight to pass through, preserving or even enhancing sunlight absorption, but it
also cools the cell by
radiating the
heat out and improving the cell efficiency.»
These measurements may
also shed light on the proportion of radioactive elements like uranium and thorium inside the Moon, since their decay produces
heat and should increase the amount of
heat radiated by the Moon, says Paul Spudis of the Johns Hopkins University Applied Physics Laboratory in Laurel, Maryland, US, who is developing radar instruments to fly on LRO and Chandrayaan - 1.
I would
also suggest that now the extra latent
heat of this autumn's fast Arctic ice recovery to ~ normal has started to fade (i.e. mostly
radiating away to space), Wayne won't be able to claim many more «warmests in history» for a long time.
Many beds are made from recycled materials, and while there are electrically
heated pads for pets, materials that trap natural body
heat and
radiate it back to the animal
also are available.
«It's not just the colours that
radiate in a Bonnard», writes Roberta Smith, «there's
also the
heat of mixed emotions, rubbed into smoothness, shrouded in chromatic veils and intensified by unexpected spatial conundrums and by elusive, uneasy figures.»
There's
also a number of interesting applications in the evolution of Earth's atmosphere that branch off from the runaway greenhouse physics, for example how fast a magma - ocean covered early Earth ends up cooling — you can't lose
heat to space of more than about 310 W / m2 or so for an Earth - sized planet with an efficient water vapor feedback, so it takes much longer for an atmosphere - cloaked Earth to cool off from impact events than a body just
radiating at sigmaT ^ 4.
And I recall one can make ice in the desert the same way; a concentrating solar power plant could
also create a «cold reservoir» by
radiating heat away from some storage material at night, then dumping waste
heat into that in the daytime, perhaps.
Also, if radiative limits are preventing tropical precipitation, wouldn't that just increase the height of the convection cell, if it can't
radiate heat as efficiently?
Now, however, the extra CO2 does more than
radiate away
heat due to its own absorptive properties, but
also can
radiate away
heat from the other source.
But that's actually an understatement by Gallup, since more than 97 % of the world's climatologists say that those carbon gases, which are given off by humans» burning of carbon - based fuels, are causing this planet's temperatures to rise over the long term, as those carbon gases accumulate in the atmosphere and
also block the
heat from being
radiated back into outer space.
The increased effective
radiating surface area of atmospheric CO2 would
also act like a stepping stone for
heat to leave the planet but how much cooling these effects have is anyones guess.
Also adiabatic cooling of convecting air, containing CO2, will
radiate heat to a cooler area, ie above, not to the warmer surface.
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.
They
also make snow less white, thereby reducing its effectiveness in
radiating the sun's
heat back into space.
Clouds cool the planet by reflecting solar energy back to space and
also trap
heat and
radiate it back to Earth.
You
also need a value that closes when the collectors are colder than the storage so natural convection doesn't send all your
heat to the roof to
radiate away.
These stem from a diversity of site - specific conditions, including, but not limited to: local vegetation; presence of building structures and contributions made by such structures involving energy use,
heating and air conditioning, etc; exposure to winds, the wind velocities determined by climatic factors and
also whether certain wind directions are more favored than others by terrain or the presence or absence thereof to bodies of water; proximity to grass, asphalt, concrete or other material surfaces; the physical conditions of the CRS itself which include: the exact location of the temperature sensors within it, the degree of unimpeded flow of external air through the CRS, the character of the paint used; the exact height of the instrument above the external surface (noting that when the ground is covered by 3 feet of snow, the temperature instrument is about 60 % closer to, or less than 2 feet, above an excellent
radiating surface, much closer than it would be under snow - free conditions).
The AGW claim from the comic cartoon KT97 and kin The Greenhouse Effect says that Shortwave, (near UV, visible and near infrared, but mostly visible)
heats up land and oceans, that no longwave infrared from the Sun gets through the invisible undefined and unexplained barrier said to be like the glass of a greenhouse, and then the Shortwave
heated land and oceans
radiate out longwave infrared, (which in real physics is
heat,
also called thermal infrared).
Surface
heat will
radiate downwards and
also be moved by ocean currents.
The warmed surface
radiates as a blackbody, and
also loses
heat through rising in air currents or evaporated moisture.
The proximity to buildings
also altered the winds, and added
heat radiating from the walls.
Since to me (and many scientists, although some wanted a lot more corroborative evidence, which they've
also gotten) it makes absolutely no sense to presume that the earth would just go about its merry way and keep the climate nice and relatively stable for us (though this rare actual climate scientist pseudo skeptic seems to think it would, based upon some non scientific belief — see second half of this piece), when the earth changes climate easily as it is, climate is ultimately an expression of energy, it is stabilized (right now) by the oceans and ice sheets, and increasing the number of long term thermal radiation /
heat energy absorbing and re
radiating molecules to levels not seen on earth in several million years would add an enormous influx of energy to the lower atmosphere earth system, which would mildly warm the air and increasingly transfer energy to the earth over time, which in turn would start to alter those stabilizing systems (and which, with increasing ocean energy retention and accelerating polar ice sheet melting at both ends of the globe, is exactly what we've been seeing) and start to reinforce the same process until a new stases would be reached well after the atmospheric levels of ghg has stabilized.
adding a «
radiating body»
also add more conduction and then more
heat lost.
Also, if it's a good reflector,
heat will have to build up more inside than if it weren't, but not because it's
radiating energy.
«To claim that since the shell «must»
radiate inwards and outwards, that the surface necessarily will be
heated to twice the 235 W level, since it is already at that temperature, and will
also receive that amount of
radiated energy is mindboggling.
Also forgotten is the 50W
radiated by each human's basal metabolic rate, plus the
heat of condensation of the water in each breath when cold enough.
«Clouds
also block some of the longwave radiation that would be emitted back to space, so that a decrease in global cloud amount would increase the amount of solar radiation reaching the Earth's surface (more
heating), but
also increase the amount
radiated back to space (more cooling).»
The surface won't warm up to where it was before, but
also the
heat loss slows as a result of only the net difference between the energy
radiated from the surface and the energy «returned» from the atmosphere being lost from the surface.
I'd say that it is
also possible to arrive at the temperature difference between the black body
radiating temperature and the average surface temperature without any recourse to radiant
heating (adiabatic compression by gravity) and same for the surface temperature on the surface of venus.
Because they are reflective, they
also prevent energy in the form of
heat from being
radiated back into atmosphere, thus helping to cool the city as well as the planet by reducing the amount of energy trapped by the greenhouse effect.
Instead, presumably, CO2 is fairly evenly distributed all through the atmosphere - all around our heads and arms and legs - all the way up higher into the troposphere at every location in the troposphere - absorbing and
radiating some of its absorbed
heat to the
also all - surrounding nitrogen / oxygen.
We
also know that a body which is absorbing
heat must
radiate that
heat in equal measure or it will warm.
I am guessing that
heat radiating from the surface molecules of a solid
also radiate in the same way within the solid.
«Those with fireplaces and wood burning stoves will
also benefit from better
heat distribution, provided the fan is correctly positioned to effectively circulate the
heat radiated or convected by the stove or fireplace.
Radiating the
heat from all of the cast iron oven surfaces simultaneously
also ensures a kinder cooking process, unlike the fiercer direct
heat of conventional cookers.