The initial inflation energy equals the Laplace pressure (P = 2 γ r), which,
given the surface energy of water, is ~ 160 kilopascal in micron - radius bubbles and integrates to ~ 100 J l - 1 of internal volume, to which must be added the interfacial energy and the viscous and gravitational work of displacement.
Not exact matches
For Teilhard, the within and the without appear to expand in harmony, so that a constant proportion is maintained between the levels of complexity and consciousness in a
given entity, while at the same time there is a seething
energy beneath the
surface that constantly strives to raise the whole to a higher level of integration.
On Earth, the plant pigment chlorophyll absorbs the most abundant and highest -
energy colors that reach the planet's
surface — red and blue, respectively — while reflecting green,
giving vegetation its color.
Their lower
energy density, i.e. the amount of
energy that they can store in a
given volume or
surface area, has meant that they were not able to power sensors or microelectronic components.
«Our work highlights that there exists another set of important points on the potential
energy surface of a
given system, namely the BBP, which needs to be taken into consideration for mechano - chemistry applications,» said Wolfgang Quapp, a co-author of the paper who added that BBP is a new concept in mechano - chemistry.
A cosmic ray — usually a proton, but sometimes other particles — will slam into air molecules 50 miles or so above the
surface, rapidly shedding
energy and
giving rise to a shower of billions of electrons, positrons, and muons that rain down onto the terrain below.
«In conclusion, we demonstrated how sub-natural line width vibrational resolved RIXS
gives direct experimental access to the ground state potential
energy surface around selected atomic sites and moieties, not accessible with other techniques.
Ripples, wrinkles and sub-10-nanometer pores in the
surface and atomic - level imperfections
give LIG its ability to store a lot of
energy.
It is vibrating molecules that
give us the sensation of heat, and it is by this mechanism that heat
energy is trapped by the atmosphere and re-radiated to the
surface.
It ultimately doesn't do much to change the way the online modes feel — it's still the same old COD under the
surface — but having actual characters and some weird gadgets to play with during matches
gives the affair a little more
energy — it's at least the most interesting Call of Duty multiplayer experience in years, even if it is still largely unchanged.
I paint with brushes and cloths but also sharp instruments to scratch into the paint to
give energy to the
surface.
Therefore, if conditions allow the glacier
surface to warm to 0 C, the amount of ablation that can be sustained by a
given energy input increases dramatically.
Absorption of thermal radiation cools the thermal spectra of the earth as seen from space, radiation emitted by de-excitation is what results in the further warming of the
surface, and the
surface continues to warm until the rate at which
energy is radiated from the earth's climate system (
given the increased opacity of the atmosphere to longwave radiation) is equal to the rate at which
energy enters it.
Finally, to revisit the question originally posed @ 203: Assuming the IEO2011 Reference case of «1 trillion metric tons of additional cumulative
energy - related carbon dioxide emissions between 2009 and 2035», and
given that this case equates to following RCP8.5 until 2035 as previously demonstrated @ 408, what increase in average global
surface temperature relative to pre-industrial would result by 2035?
For instance, can we build a satellite which will
give us precise provable evidence of the
energy from CO2 is being delivered to the
surface.
Using (i) a state - of - the - art global climate model and (ii) a low - order
energy balance model, we show that the global climate feedback is fundamentally linked to the geographic pattern of regional climate feedbacks and the geographic pattern of
surface warming at any
given time.
The essence of the greenhouse effect is that the atmosphere inhibits
energy loss (to space) so that for a
given rate of solar
energy input, the temperature of the
surface has to be greater in order to allow the necessary amount of heat to be lost per unit time.
Assuming the IEO2011 Reference case of «1 trillion metric tons of additional cumulative
energy - related carbon dioxide emissions between 2009 and 2035», and
given that this case equates to following RCP8.5 until 2035 as previously demonstrated @ 408, what increase in average global
surface temperature relative to pre-industrial would result by 2035?
In equilibrium, all fluxes into the
surface will be balanced by fluxes out of the
surface (including momentum, etc, as well as
energy), so whatever lies beneath the
surface gives the
surface an effective heat capacity and also (in the oceans) some ability for local / regional imbalances to be balanced globally, with all of that responding to forcings and PR+CR and other feedbacks at the
surface.
National headlines accompanied the controversial use of sacred tribal lands for a proposed
energy pipeline, while recent proposals have
surfaced that would
give away federally owned and protected land to states.
The implication is that when you dump more GHG in the atmosphere but don't
give the ocean time to warm up, then the atmosphere needs to warm up until the sum of the
energy lost to space and the
energy lost to the ocean
surface comes back into balance.
«Applying a 3.6 % cloud reflectivity perturbation to the shortwave
energy balance partitioning
given by Trenberth et al. (2009) corresponds to an increase of 2.7 Wm ⁻² of solar
energy reaching the Earth's
surface and an increase of 2.4 Wm ⁻² absorbed by the
surface.»
The
surface layer warms up during the day if in sunlight and radiates day and night to
give up the
energy it has taken in.
A stronger gravitational field will produce a lower, denser, warmer
surface than a weaker gravitational field since the amount of solar
energy retained by the atmosphere will be focused into a smaller volume and that amount of
energy will be determined by the amount of mass available to absorb it at any
given level of solar irradiation.
The error bars about the limitations of the measuring systems, but
given that solar at TOA is very stable, if you claim that
energy is not reaching the
surface, then the imbalance is being stored in the atmosphere.
Given the dimensions involved (
surface to TOA times the speed of light = a few (or possibly tens of) milliseconds) this delay as the
energy flows through the system multiple times at nearly the speed of light does not emulate the effects of a thermal insulator which actually slows the velocity (rate of forward progress, distance travelled per unit time, etc.).
Note that the mass (m) of the atmosphere remains the same,
surface pressure (P) remains the same at a
given strength of gravitational field whatever the volume of an atmosphere and kinetic
energy (T) for the atmosphere as a whole stays the same because no additional
energy is being added to the system from outside.
Such lulls in solar activity, which can cause the total amount of
energy given off by the Sun to decrease by about a tenth of a percent, typically spur
surface temperature to dip slightly.
If you can follow the math in the link
given, you find we are invoking an integration over the bounding
surface of a 3 - dimensional object on which there are only two regions through which
energy may enter or depart.
Now the Albedo (backradiation into space,
energy losses) has to be subtracted with 30 % and the IPCC
gives the figure of 242 W / sqm on the Earth»
surface received and worked into the climate system after subtraction of the albedo.....
Give me one good reason why the ocean
surface at, say 18C would not transfer thermal
energy to colder regions below.
But the utter incoherence of views presented by deniers
gives the game away even so (it's cooling, it's warming but the sun is responsible, it's warming but some unknown natural cycle is responsible, the «greenhouse» effect violates the laws of thermodynamics, but somehow the
energy radiated back to the
surface by the atmosphere simply vanishes, there is a greenhouse effect but negative feed - backs make it negligible, & c ad nauseam).
Where S is the solar constant of 1370 W / m ^ 2 on the projected area (PI * r ^ 2) of the earth, which when divided by 4
gives the solar
energy per m ^ 2 on the spherical
surface area (4PI * r ^ 2) of the earth.
Average values of the different terms in the
energy budgets of the atmosphere and
surface are
given in the diagram.
That shortwave, mainly visible, is the claimed AGW Greenhouse Effect «standard
energy from the Sun heating the Earth's
surface» is ubiquitous, you're going to have to eliminate every text book mentioning this, every page on the net, every paper written in the last few decades where using this fake fisics basic is taken as a
given...
Although it is a very minor part of the global
energy system — a quick aside on
surface temperature is useful
given the undue attention it receives.
Trenberth's
energy budget schematic appears to claim a quite assymmetrical atmospheric radiation distribution; since he
gives an outgoing longwave flux of 235 W / m ^ 2 of which 40 W / m ^ 2 is actually a direct path from the
surface; not an atmospheric radiation.
The
surface temperature response, T, to a
given change in atmospheric CO2 is calculated from an
energy balance equation for the
surface, with heat removed either by a radiative damping term or by diffusion into the deep ocean.
For Velasco et al.'s purposes, the state of a molecule is totally defined by its location and momentum, and the state of an ensemble of molecules is the combination of the individual molecules» states: for an ideal - gas ensemble consisting of N monatomic molecules, each of which is characterized by x, y, and z components both of position and of momentum, the ensemble's state can be represented by a point in 6N space, in which a
surface I think of as a hyperparaboloid represents the states that exhibit a
given total (potential + kinetic)
energy.
So it's all gases at greatest density will be doing the same thing around the planet at the same time (*) and as these change with differences in density in the play between gravity and pressure and kinetic and potential from greatest near the
surface to more rarified, less dense and absent any kinetic to write home about the higher one goes, then,
energy conservation intact, the hotter will rise and cool because losing kinetic
energy means losing temperature, thus cooling they which began with the closest in density and kinetic
energy as a sort of band of brothers near the
surface will rise and cool at the same time whereupon they'll all come down together colder but wiser that great heights don't make for more comfort and
giving up their heat will sink displacing the hotter now in their place when they first went travelling.
e) That a warmer ocean
surface increases the
surface / space temperature differential yet does not
give rise to a significant increase in loss of
energy to space.
Another point is that, in concert with Rob Ellison, you overlook the fact that only about 50 % of the Earth's
surface area is receiving
energy from the Sun at any
given time, whereas 100 % is emitting
energy.
Another interpretation is that
given a certain
energy imbalance at the top of atmosphere, if the heat is not manifested as
surface temperature rise then it goes elsewhere.
The TOA imbalance minus the net
surface flux (from * all * fluxes, latent, radiative, etc.)
gives the rate of change of the atmospheric
energy content.
Theorem: The steady - state dissipation of a thermodynamic system due to an
energy flux between two isothermal
surfaces equals the maximum rate of work possible for a Carnot engine operating between these same temperatures
given the same
energy input.
Somewhere along the gradient (the
surface if all outgoing
energy directly radiated to space, or the AVERAGE altitude of outgoing to incoming
energy balance for a real atmosphere), an absolute temperature has to be determined to
give the rest of the slope actual temperatures.
Most of the «future» effect is already «dialed in», it is the observation of delayed effect that is being
given «regard» as a «greenhouse issue», even as the «greenhouse effect» is seen as not possible, or that «greenhouse warming amplification» is not evidenced within possible
surface incident
energy (as Photons).
Let us assume a «natural» function, F (x, y, z, t) which describes the pattern of isothermal
surfaces which would be expected in a
given space, due solely to non anthropogenic
energy flows.
Other characteristics of the Earth will affect the net position such as the distribution of the land and sea
surfaces but
given the predominance of ocean
surfaces and the fact that most
energy comes in at the equator which is mostly oceanic then it seems most likely that the net global effect of more greenhouse gases is actually a miniscule cooling rather than a miniscule warming.
So, we then have the solar input passing straight through yet a further 33 being recycled up and down through the atmosphere which
gives a warmer
surface but no change in top of atmosphere
energy balance.