Sentences with phrase «n't radiate heat»

Yes, they radiate back and forth, but they don't radiate heat.

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?

In 1900 Max Planck discovered that bodies do not radiate heat in a continuous stream but in small packets of energy, called quanta.

It heats up in sunlight like most other compounds, but it does not radiate its heat into its surroundings as much.

They are not radiated heat energy.

The only discussion, is are there any realistic conditions where an atmospheric shell could not radiate heat to interstellar space?

Not exact matches

mines the cryptocurrency Ethereum and can radiate a nice heat source for up to 300 sq ft. «Make heating a source of revenue, not an expense,» explains the company.

The QC - 1 mines the cryptocurrency Ethereum and can radiate a nice heat source for up to 300 sq ft. «Make heating a source of revenue, not an expense,» explains the company.

And now in the heart of the whirling cloud a light was growing, a light in which there was the tenderness and the mobility of a human glance; and from it there spread a warmth which was not now like the harsh heat radiating from a furnace but like the opulent warmth which emanates from a human body.

Don't flour your palms — they radiate heat, while your fingertips stay cooler.

Steve: And all the conventional explanations like the ones you mentioned, some gas venting — and it could be a tiny, tiny amount of gas venting or this kind of heat radiating off the spacecraft — all the conventional explanations still don't get you the entire error in the position of the spacecraft.

Because they do not burn bright like normal stars, brown dwarfs are difficult to spot, but they radiate enough heat to show up in the infrared.

It releases less internal heat than Jupiter, but given its smaller size scientists aren't sure why it radiates any heat at all.

There are still ways to make the hypothesis work: a megastructure swarm might radiate its gathered energy away as radio or laser signals instead of heat; it might not form a spherical swarm but a ring precisely aligned with our line of sight; it might use technology beyond our understanding of physics that emits no heat at all.

Thus, says Narayan, if the matter coming into the black hole is sparse enough, its particles won't interact much and won't radiate much, and thus the matter will retain most of its heat.

As matter is sent whirling into a black hole, tugged ever harder by the hole's irresistible gravity, the material heats up, and along its wild ride it radiates that heat away as light, until it disappears past the black hole's «event horizon» — the border beyond which nothing, not even light, can escape the hole's violent gravitational pull.

If the matter retains its heat, then it will expand, becoming even sparser, and thus continue not to radiate much despite its growing temperature.

Not only do stars provide a ready energy source of radiated light and heat, but the mass and gravitational pull of stars flat - out dwarfs the summed masses and pulls of any orbiting companions.

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.

The moss forms in response to the spreading of the flare heat in the hot coronal loops above the moss; the loops are not visible in this TRACE 195 Angstrom image series because they are so hot that they radiate in x-rays, which are invisible to the TRACE instrument.

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.

Writer / director Lorene Scafaria's valentine to her own mother, on whom Sarandon's character Marnie is based, is not just full of laughs and not a little poignancy, but it positively radiates with the heat and light thrown up by its star.

There wasn't a problem with radiated heat in the past, but this helps prevent bodywork from burning when the car is stationary.

One way a dog radiates heat is through their feat pads, so when they can't avoid heated ground (such as pavement), it can create a dangerous situation for them.

«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.»

To say it a bit worse but in modern lingo: to maintain radiative equilibrium, the planet has to put out a certain amount of heat, and if it can't radiate it out from the surface, the lower atmosphere somehow has to get warmer until there's some level that radiates the right amount.

b] heat is neutralized by the» cold vacuum» that penetrates into the atmosphere; not by heat radiating out of space and albedo gizmo, please read the Holy Grail!!!

At present we're not radiating out quite as much as we take in, so there's heat energy building up in the system.)

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.

Heat that ends up in the ocean essentially contributes to the imbalance because thermal physics says it can not radiate from depth.

The whole issue is that any level above what is often called the «effective radiating level» (say, at ~ 255 K on Earth) should start to cool as atmospheric CO2 increases, since the layers above this height are being shielded more strongly from upwelling radiation... except not quite, because convection distributes heating higher than this level, the stratosphere marks the point where convection gives out and there is high static stability.

Away from the dense network of heat absorbing (daytime) then heat radiating (nighttime) structures which is the Urban Heat Island and above the air with high water vapor content trapped by the valley along the river, not to mention the pall of coal dust over the city, morning low temps were much more like what the natural countryside would experieheat absorbing (daytime) then heat radiating (nighttime) structures which is the Urban Heat Island and above the air with high water vapor content trapped by the valley along the river, not to mention the pall of coal dust over the city, morning low temps were much more like what the natural countryside would experieheat radiating (nighttime) structures which is the Urban Heat Island and above the air with high water vapor content trapped by the valley along the river, not to mention the pall of coal dust over the city, morning low temps were much more like what the natural countryside would experieHeat Island and above the air with high water vapor content trapped by the valley along the river, not to mention the pall of coal dust over the city, morning low temps were much more like what the natural countryside would experience.

Radiating this amount of heat (when needed) is not feasible and some type of dry cooling tower is required.

In other words, greenhouse gases don't retain heat themselves, but rather redirect outgoing energy radiated by the surface and lower in the atmosphere, thereby delaying it's ultimate escape to space.

The skin layer planet is optically very thin, so it doesn't affect the OLR significantly, but (absent direct solar heating) the little bit of the radiant flux (approximatly equal to the OLR) from below that it absorbs must be (at equilibrium) balanced by emission, which will be both downward and upward, so the flux emitted in either direction is only half of what was absorbed from below; via Kirchhoff's Law, the temperature must be smaller than the brightness temperature of the OLR (for a grey gas, Tskin ^ 4 ~ = (Te ^ 4) / 2, where Te is the effective radiating temperature for the planet, equal to the brightness temperature of the OLR — *** HOWEVER, see below ***).

A second alternative acknowledges an unchanging OLR, but posits that less is now entering the stratosphere in wavelengths absorbable by CO2 because a heated surface is now radiating more IR to space in wavelengths where CO2 does not absorb («window regions»).

Increasing the height of the convection cell doesn't generally help the planet radiate away heat, since the higher the tropospause (loosely the height of convection) goes, the colder it gets, inhibiting radiation.

This is why (absent sufficient solar or other non-LW heating) the skin temperature is lower than the effective radiating temperature of the planet (in analogy to the sun, the SW radiation from the sun is like the LW radiation, and the direct «solar heating» of the part of the atmosphere above the photosphere may have to due with electromagnetic effects (as in macroscopic plasmas and fields, not so much radiation emitted as a function of temperature).

But the monthly fees are going to be extraordinary - all that extra surface to maintain (and radiate heat), acres of terrace on top of habitable space, everything you are taught in architecture school and in the harder school of actually building things that you shouldn't do.

Still obfuscating and exposing that you don't understand the difference between radiating and transferring heat.

''» Not even close Landmass area = 29.2 % Oceans area = 70.8 % The oceans absorb / radiate 70 % of heat, the land the other 30 %.

Like the heat you use to cook your dinner, this is not at all like the dissipated heat hot objects radiate out in all directions, or that we might get reflected from the full moon..

However one can not create heat or energy from nothing so there is no net heat gain merely a delay until the part sent down is radiated back up again and has another attempt at leaving the planet.

If the heat did not escape to space and it could not be traced in the air, it must have radiated away in the opposite direction: down.

While it's true that thick, beefy bodies of material can soak up heat during the day and then radiate that heat again when the air is cooler, this principle doesn't work if the thermal mass isn't insulated.

that cloud response to warming acts similarly to the eye's iris, opening to let more heat radiate out to space as temperature rises and closing to hold more heat in as temperature falls, and generally supports the understanding that Earth's climate is self - regulating and therefore not prone to a «tipping point» or a «runaway greenhouse effect» or «catastrophic warming.»..

Under «Second law», you will find: «The second law states that spontaneous natural processes increase entropy overall, or in another formulation that heat can spontaneously be conducted or radiated only from a higher - temperature region to a lower - temperature region, but not the other way around.»

The actual heat we feel from the Sun is the Sun's thermal energy radiating out to us, the Sun's visible / shortwave light are not thermal and are physically incapable of heating matter as real thermal infrared heat radiation does.

Ideally the zero point would be modulated by ocean heat content and / or ssts, since it is the comparison between energy into the oceans vs. energy radiated back out that determines warming or cooling, but we don't have much historical ohc or sst data so a fixed zero point would seem to be the best that can be done.

CO2 radiation at high above is cold (depends on altitudes, latitudes, and longitudes, say from 0degreeC to -60 degreeC) can not radiate net heat back to the Earth which is at a higher temperature.