There is much more to all this, as you can read at Realclimate and Pielke's blog,
where ocean heat arguments come up regularly.
The myth probably arises from the very early days of equilibrium change runs,
where the ocean heat sink effect did not apply.
Not exact matches
«Dissecting the
ocean's unseen waves to learn
where the
heat, energy and nutrients go.»
That's because the Southern
Ocean is the door to the deep, the place
where stupendous amounts of
heat and carbon dioxide can enter the
oceans — or escape from them.
This presupposes that the moon has a porous core that allows water from the overlying
ocean to seep in,
where the tidal friction exerted on the rocks
heats it.
The Iceland and Greenland Seas are among the only places worldwide
where conditions are right and this
heat exchange is able to change the
ocean's density enough to cause the surface waters to sink.
Hydrothermal vents,
where heated, mineral - laden seawater spews from cracks in the
ocean crust, are home to various diverse organisms.
If it is permanent, «it is logical to suggest that the winds and
ocean currents change accordingly and switch us into a new regime
where heat is not buried so deeply, and we jump to the next level in global warming,» Trenberth said.
As a result, there has been a reduction in the
heat exchange over the locations
where sinking occurs in the
ocean.
Adding vast amounts of CO2 to the atmosphere could
heat a planet to the point
where it leaks so much water that its
oceans eventually disappear
One question that has long and intensively been discussed in research is:
Where and how deep does seawater penetrate into the seafloor to take up
heat and minerals before it leaves the
ocean floor at hydrothermal vents?
The subsurface
oceans that are believed to exist on Europa and Enceladus, would have conditions similar to the deep
oceans of Earth
where tardigrades are found, volcanic vents providing
heat in an environment devoid of light.
Beyond that, more than 95 percent of the world's methane hydrates exist in deep -
ocean settings
where it is unlikely water would ever
heat up enough to significantly destabilize them.
«
Where mid-depth waters from the deep
ocean intrude onto the continental shelf and spread towards the coast, they bring
heat that causes the glaciers to break up and melt.
But if so,
where is the «missing
heat» (Trenberth) or «global warming still in the pipeline» (Hansen)--
heat storage in the
ocean, whose first effect would be an increasing SLR from thermal expansion?
«More
heat is trapped in the upper layers of the
ocean,
where it can be easily released back into the atmosphere,» Park said.
January 2004: «Directions for Climate Research» Here, ExxonMobil outlines areas
where it deemed more research was necessary, such as «natural climate variability,
ocean currents and
heat transfer, the hydrological cycle, and the ability of climate models to predict changes on a regional and local scale.»
The El Niño Southern Oscillation is an internal phenomenon
where heat is exchanged between the atmosphere and
ocean and can not explain an overall buildup of global
ocean heat.
Some organization or groups of organizations likely with the National Oceanic Administration leading should come up with the mid Atlantic volcanic rift
heat output totals for correlation with the
ocean currents to have a real time indication of
where the
heat is going and what and
where the temperature increases are located.
Because of it's much higher thermal mass the
oceans will represent the largest single location
where heat accumulates.
The top of the curves are warmer years caused by El Niño; a weather phenomenon
where the Pacific
Ocean gives out
heat thus warming the Earth.
Thus, during an El - Nino, much of the
heat content of the Indo - Pacific warm pool moves from being too deep for surface measurements to detect, to being spread out on the surface of the
ocean,
where surface measurements can detect it.
While the stratosphere recovers from volcanic events quite quickly, the troposphere takes longer as some
heat is transferred into the
oceans,
where cooling - down and
heating back up take time.
Where the
heat is actually stored is another matter... the Southern
Ocean, for instance, appear to be taking up far more
heat than is being stored there due to equatorward transport.
The cool skin behaves quite differently to the water below, because it is the boundary
where the
ocean and air meet, and therefore turbulence (the transfer of energy /
heat via large - scale motion) falls away as it approaches this boundary.
So when a disturbance in the atmosphere happened to hit an area
where winds were favorable, it often had the
ocean heat to help fuel it.
This could have been above
ocean trenches,
where the geothermal
heat flow is up to 17 % lower than normal.129 If so, plate tectonics operated two billion years before we thought, although ancient trenches have never been found.
One of my favorite things about summer are those evenings
where the
heat breaks and there is a cool
ocean breeze.
The exceedingly romantic bedroom boasts a king - size bed with direct access to a private cantilevered, solar
heated plunge pool with infinity edge
where couples can admire the stunning
ocean while floating in the sky.
This all inclusive resort features two
heated pools overlooking the
ocean, docks
where you can go swimming in the
ocean from and lots of areas to sit on a chair and enjoy the beautiful sea.
Enjoy the oceanfront location,
heated pool and outdoor Jacuzzi; spectacular sunrises and stunning
ocean views
where playful dolphins are a frequent site from the Beach House's second floor Verandah.
Hilo is the gateway to all of East Hawaii, a sometimes overlooked adventurer's paradise that stretches from the isolated Ka Lae peninsula — the southern-most point in the U.S. and a National Historic Landmark —
where ocean - faring Polynesians first made landfall in Hawaii; to Hawaii Volcanoes National Park,
where Kilauea volcano has been erupting since 1983; to the glistening jungles that tumble down - slope to the Puna coastline,
where lava -
heated ponds and clear tidepools speckle the shore.
In an email chat, Yair Rosenthal of Rutgers University and Braddock Linsley of Columbia University, whose related work was explored here in 2013, said the Argo analysis appeared to support their view that giant subtropical gyres are the place
where heat carried on currents from the tropics descends into the deeper
ocean.
We recently had a longish «pause» in global temperatures
where it seems the excess
heat sequestered itself in the
oceans, only to emerge quite spectacularly in the last couple of years.
This is not even close to a new finding, but the new study shows more precisely
where most of the
heat has been going since 2006 (in the Southern
Ocean outside the tropics; see the red splotches in the map below).
(In fact, still more in the
oceans,
where most of the new
heat energy is going over the decades.
My question, if the El Nino does not deliver the punch anticipated or does not actually arrive this fall or winter,
where does the accumulating
ocean heat go?
And so far, you still have not replied to my points in 156 and 231 that explain
where the
heat increase in the total system of
ocean and atmosphere comes from and that demonstrates the physically impossibility of your main causal claim that all the
ocean heat content increase since 2000 is merely due to a transfer of
heat from the atmosphere,
where you claim that all this
heat was in the atmosphere in 1979.
This was explicitly discussed in Hansen et al, 1997
where they predicted that over the last few decades of the 20th Century, there should have been a significant increase in
ocean heat content (OHC).
That leads to a net
heat flux into the surface
ocean where it anomalously
heats the mixed layer (and circulation slowly diffuses and advects that
heat into the deeper
ocean).
Temperature tends to respond so that, depending on optical properties, LW emission will tend to reduce the vertical differential
heating by cooling warmer parts more than cooler parts (for the surface and atmosphere); also (not significant within the atmosphere and
ocean in general, but significant at the interface betwen the surface and the air, and also significant (in part due to the small
heat fluxes involved, viscosity in the crust and somewhat in the mantle (
where there are thick boundary layers with superadiabatic lapse rates) and thermal conductivity of the core) in parts of the Earth's interior) temperature changes will cause conduction / diffusion of
heat that partly balances the differential
heating.
In a region
where the
ocean was already being
heated, the same pattern would be seen but now since the skin SST was warmer, the skin - bulk difference would increase, causing more
heat to go into the
ocean.
We're essentially running a large experiment
where we're putting this
heat into the deep
ocean and we don't quite know what the downstream effects are going to be.
C is not constant for the dT» / dt equation to apply because
heat penetrates through different parts of the climate system (different depths of the
ocean in particular) over different time scales (also, if T» is supposed to be at some reference location or the global average at some vertical level, T» at other locations will vary; C will have to be an effective C value, the
heat per unit change in the T» at the location (s)
where T» occurs)
When upwelling brings cold water to the
ocean's surface, cooling the atmosphere,
where is that
heat lost from the atmosphere «hiding»?
The cause of the change is a particular change in winds, especially in the Pacific
Ocean where the subtropical trade winds have become noticeably stronger, thereby changing ocean currents and increasing the subtropical overturning in the ocean, providing a mechanism for heat to be carried down into the o
Ocean where the subtropical trade winds have become noticeably stronger, thereby changing
ocean currents and increasing the subtropical overturning in the ocean, providing a mechanism for heat to be carried down into the o
ocean currents and increasing the subtropical overturning in the
ocean, providing a mechanism for heat to be carried down into the o
ocean, providing a mechanism for
heat to be carried down into the
oceanocean.
The only remaining repository for this extra CO2 besides our air (
where it traps
heat) is in our
oceans, which are slowly being acidified.
The
ocean conveyor gets its «start» in the Norwegian Sea,
where warm water from the Gulf Stream
heats the atmosphere in the cold northern latitudes.
Where the
heat is actually stored is another matter... the Southern
Ocean, for instance, appear to be taking up far more
heat than is being stored there due to equatorward transport.
The
oceans are warming, and these hurricanes represent one mechanism that moves the
heat from the surface to high levels in the atmosphere
where it can escape to space.