And also reduces the flow of energy into the layer from below (or increases the flow of
energy out of the layer to below — depending on the sign of the temperature difference).
This means energy into the layer =
energy out of the layer.
Not exact matches
To feel
out the dark matter in our universe, the AMS uses
layers of detectors, shown below, to measure the speed and
energy of particles in cosmic rays:
Plus, too many
layers of editing tend to suck the
energy out of ideas that started fresh and vibrant, as each reviewer tries to justify his or her existence with «just a few changes.»
The complete sunshield consists
of five thin reflective
layers of plastic that bounce heat back into space — and any
energy they do absorb radiates
out between the
layers.
Layers of nanotubes in between the fibreglass and steel
of the skis spread
out incoming
energy, dampening the shakes and helping the skiers maintain their speed and stability.
Energy developers and researchers alike want to find
out what's living in the Marcellus Shale's deep
layers of rock.
The EU funded Excess project, which finishes August 31, set
out three years ago to take on what the researchers perceived as a lack
of holistic, integrated approaches to cover all system
layers from hardware to user level software, and the limitations this caused to the exploitation
of the existing solutions and their
energy efficiency.
When an icy impact occurred, the impactor's kinetic
energy became heat
energy, instantly melted some ice, gouged
out a crater, and kicked up into Mars» thin atmosphere large amounts
of debris mixed with water (liquid, ice crystals, and vapor)-- and complex organic molecules that obviously came recently from life.127 Then, the dirt and salt - water mixture settled back to the surface in vast
layers of thin sheets — strata — especially around the crater.
Kevin, even with greater evaporation, when one considers all the
energy fluxes into and
out of the ocean cool skin
layer, as long as the change in net
energy flux causes the cool skin to warm, the temperature gradient between the cool skin
layer and the bulk ocean below it will decrease.
While the production was still figuring a few things
out on set, I could see all the time and
energy that had been put into
layering this film with tons
of spectacular extras that this is going to be something special when it gets released in 2011.
Each sub-system
of it, be it atmosphere
layers or ocean
layers, has an
energy throughput, which is in /
out balanced for a sufficiently short given period.
Thus, for a well - coupled convecting troposphere, one defines the climate sensitivity (in the absence
of feedback) as 1 / [d (SB) / dT] = 1 / (4 * sigma * T ^ 3), where T in this case is actually the emission temperature
of the planet where infrared radiation leaks
out to space (analogous to the photosphere
of the sun, where eventually the outer
layers of the sun become optically thin to visible radiation, and allow that
energy to escape to space), not the surface temperature.
Scientists now are teasing
out the secrets
of complex multi-scaled
layers of turbulence in plasmas, the movement
of particles through those plasmas, their interaction with magnetic fields, and numerous other phenomena that impact the plasma's ability to be harnessed as an
energy source.
Where do they account for the evaporative cooling in the interacting
layer that cancels
out the heating in the skin
layer so as to prevent any reduction
of the natural upward
energy fllux?
On top
of what you described, I would add another
layer — that the Earth as a whole is a far - from - equilibrium system, and is constantly in a process
of DOING WORK — instilling order
out of incident
energy.
Regulating the use
of coal and oil
out of the economy, increasing redistributive taxes to a massive degree, centralizing control
of the
energy economy in the government, ceding additional sovereignty to unaccountable international organizations, and creating one additional
layer of bureaucracy upon another is not political.
His exposition does not deal with the real situation
of the atmosphere, which is in effect a
layer of gas dealing with an infrared
energy flux emanating from the Earth's surface and which passes
out into the void
of space.
As you rightly point
out, the influence
of oceanic heat - sinks is potentially a large factor and I don't really know how the transfer
of energy within it is modelled in terms
of difusion,
layer mixing and bulk transport.
The explosive release
of latent
energy increases the local pressure at the condensation
layer forcing down on the condensation
layer which is immobile due to the condensation temperature limit forcing, expanding air
out in all directions while condensation cause a smaller scael implosion.
But exactly the same amoutn
of LWIR
energy in that 1/2 degree cone angle, also falls on the sun which is at 6000 K or so, and it passes through
out layers of the sun, which are at million degree temperatures.
A gold metal
layer beaten
out to a 100 Angstrom thick film, is also not going to radiate like a solid; it is going to start looking decidedly more gas like, because
of its extremely low thermal mass, so that a small radiation can result in a large Temperature drop (unless replenished from some continuous
energy source).
It can and does suck
energy out of one part
of a system (the ocean skin
layer) and place it in another part
of the system (water vapour in the air).
When DLR is applied the increase in
energy loss from SST (int) speeds up the flow and offsets the increase in
energy gain in SST (skin) which slows down the flow for a zero net effect on the rate
of flow from the mixed
layer to the subskin and thence
out to space.
However DLR never gets past the skin
layer so although it adds to the skin temperature it also adds to the rate
of evaporation and as evaporation has a net cooling effect (the enthalpy
of vapourisation is GREATER than the
energy required to provoke evaporation) more (formerly) DLR
energy is pulled
out of the local environment than is required to provoke that EXTRA evaporation.
The issue as I see it is whether the evaporative cooling in the interacting
layer is strong enough to negate the effect
of the warming in the skin so as to cancel
out any effect on the upward background
energy flow from the subskin.
Thus there is a temperature inversion caused in part by evaporation whereby
energy is drawn
out of the oceans faster than
energy coming up from below plus solar shortwave entering into the cooler subskin
layer.
«collisional
energy transfer is unlikely to carry the
energy from absorbed DLR
out of the skin
layer»
It does however reduce the amount
of energy flowing
out of the mixed
layer.
The reason it exists is that upward evaporation and radiation from the surface pulls
energy out of that 1 mm
layer faster than conduction and convection can bring
energy up from below.
But DeWitt has a good point that immediate re-radiation is very unlikely, but likewise collisional
energy transfer is unlikely to carry the
energy from absorbed DLR
out of the skin
layer, so it is still available to make up the «Stefan - Boltzmann» requirement.
I thought the idea was that an increase in the atmospheric radiative forcing from above would warm the skin
layer a bit, reducing the temp gradient to the water
layer below, thus impeding the transport
of absorbed solar
energy up and back
out of the ocean, and thus making it pile up to increase OHC.
The trick is in nanotechnology, creating nanomaterials
out of semiconductor materials to
layer over blue LED lights (the most
energy efficient LED color), forming better quality white LED light with a range
of hues.
What I am pointing
out is that it is * possible * for the mixed
layer not to gain
energy at a higher rate, or in advance
of, the deeper
layers.
In fact, even if the surface is colder than the boundary
layer, latent heat transport can take
energy out of the surface, provided the boundary
layer is sufficiently dry.