My view is that the weather patterns respond to changes in
global heat balance and do NOT drive them.
Once the new weather patterns have been in place for a while then the climate has changed until another shift in
the global heat balance occurs.
-- the overall change to
the global heat balance climate from basic physics bounded by paleo observations (over time increasingly constrained by modern observations)-- the probable overall patterns of regional change at a large scale — the range of impacts.
Second, we will always know less about what drives paleo climate because we know less about the key factors that drive
global heat balance in the distant past than we know about the present, for which we have precise measurements.
The only thing that has been changing in a way that should increase
global heat balance over the last 40 years are greenhouse gases.
As I recall, I read that the amount of heat from cars was not important in
the global heat balance; rather, the CO2 emitted was, by far, the more significant issue.
Not exact matches
Balance of payment deficits of an unprecedented magnitude have resulted in credit induced economic over
heating on a
global scale.
Water's enormous
heat - carrying capacity allows the atmosphere and ocean currents to
balance global temperatures.
Scientists at Pacific Northwest National Laboratory showed that
global climate models are not accurately depicting the true depth and strength of tropical clouds that have a strong hold on the general circulation of atmospheric
heat and the
global water
balance.
Volodin, E.M., 2004: Relation between the
global - warming parameter and the
heat balance on the Earth's surface at increased contents of carbon dioxide.
However,
global mean precipitation is controlled not by the availability of water vapour, but by a
balance between the latent
heat of condensation and radiative cooling in the troposphere.
«The
global mean latent heat flux is required to exceed 80 W m — 2 to close the surface energy balance in Figure 2.11, and comes close to the 85 W m — 2 considered as upper limit by Trenberth and Fasullo (2012b) in view of current uncertainties in precipitation retrieval in the Global Precipitation Climatology Project (GPCP, Adler et al., 2012)(the latent heat flux corresponds to the energy equivalent of evaporation, which globally equals precipitation; thus its magnitude may be constrained by global precipitation estim
global mean latent
heat flux is required to exceed 80 W m — 2 to close the surface energy
balance in Figure 2.11, and comes close to the 85 W m — 2 considered as upper limit by Trenberth and Fasullo (2012b) in view of current uncertainties in precipitation retrieval in the
Global Precipitation Climatology Project (GPCP, Adler et al., 2012)(the latent heat flux corresponds to the energy equivalent of evaporation, which globally equals precipitation; thus its magnitude may be constrained by global precipitation estim
Global Precipitation Climatology Project (GPCP, Adler et al., 2012)(the latent
heat flux corresponds to the energy equivalent of evaporation, which globally equals precipitation; thus its magnitude may be constrained by
global precipitation estim
global precipitation estimates).
Back - of - the - envelope calculations show that the latent
heat absorbed by melting of ice after surges (e.g., the melting of > 1500 years of ice accumulation during Dansgaard - Oeschger events — which seem to have happened in unison across the northern hemisphere, or the longer > 5ky Bond cycles) can significantly contribute to the
global energy
balance.
With climate and Greenhouse Gas thoeries of
Global warming, it appears to me that of most interest is the interface between the Earth's atmosphere and space and the flow of radiated
heat from the sun, what's reflected back from Earth's surface and the consequences of any change in that
balance.
Because latent
heat release in the course of precipitation must be
balanced in the
global mean by infrared radiative cooling of the troposphere (over time scales at which the atmosphere is approximately in equilibrium), it is sometimes argued that radiative constraints limit the rate at which precipitation can increase in response to increasing CO2.
The Stephens et al paper is a very incremental change from previous estimates of the
global energy
balances — chiefly an improvement in latent
heat fluxes because of undercounts in the satellite precipitation products and an increase in downward longwave radiation.
Anthropogenic GHG warming is about the Earth's energy
balance, and thus, looking at an average
global near - surface temperature, or the total ocean
heat content can tell us something useful about that energy
balance.
«The same pollution that we believe is
heating the world's oceans through
global warming is also altering their chemical
balance,» Professor John Raven, chair of the working group, said.
Extra
heat from all sources — including the interior of the planet, fossil fuel burning, nuclear fission, solar radiance, north - south asymetry and — the big one — cloud radiative forcing — is retained in planetary systems as longwave emissions and shortwave reflectance adjusts to
balance the
global energy budget.
If Earth's mean energy imbalance today is +0.5 W / m2, CO2 must be reduced from the current level of 395 ppm (
global - mean annual - mean in mid-2013) to about 360 ppm to increase Earth's
heat radiation to space by 0.5 W / m2 and restore energy
balance.
Science indeed says that human carbon injection is increasing the
heat balance of the atmosphere (anthropogenic
global warming or AGW), but science does not say we need to create a
global bureaucracy.
As soon as a
global climate model readjusts a vertical column to unphysically alter the large scale solution in order to maintain hydrostatic
balance (overturning due to unrealistic
heating parameterizations necessitate this adjustment), there is no mathematical theory that can justify the nature of the ensuing numerical solution.
«
Heat balance of the earth and
global temperature change,» EIKE, February 3, 2015.
Simple Hansen - style thermodynamic
heat -
balance models that predict accelerating
global energy imbalance.
However, as Mr. Outing points out, presenting a «
balanced» view of
global heating doesn't make sense — there isn't anything resembling a serious debate about whether human beings are causing
global heating because the current scientific consensus is that human burning of fossil fuels is causing
global heating.
The improved accuracy associated with more reliable measures of radiative forcing and temperature is consistent with the hypothesis that anthropogenic activities, which alter the Earth's
heat balance, affect
global surface temperature.
Inventor: Method and apparatus for load
balancing trapped solar energy OTEC Counter-Current
Heat Transfer System
Global Warming Mitigation Method Subductive Waste Disposal Method Nuclear Assisted Hydrocarbon Production Method
For the real earth, with a significant
heat capacity and significant atmospheric and ocean transport, the one summary number that has meaning is the average of T ^ 4 over the surface of the earth... That is what is going to go into determination of the
global surface radiative
balance.
Present
global climate models (GCMs) supersede the old simple conceptual models on the greenhouse effect, some of which include radiative - convection and
heat balance models discussed over the period 1890 — 1980 (Arrhenius 1896; Hulburt 1931; Charney et al. 1979; Schneider and Dickinson 1974; North 1975; Wang WC and Stone P 1980).
We show that this occurs in spite of a decline in radiative forcing that exceeds the decline in ocean
heat uptake — a circumstance that would otherwise be expected to lead to a decline in
global temperature when using the simple energy
balance model described in the post.
In this basin, significant inter-ocean exchange of
heat and salinity from the Indian and Pacific Oceans serve as the main
balance for the
global meridional overturning circulation (MOC).
From your calculations, relate the
heat balance to
global climate over these 10 Ma flitches.
The
heat balance Broad aspects of
global mean temperature change may be illustrated using a simple representation of the
heat budget of the climate system expressed as: