Also,
ocean sea surface temperatures cool dramatically by December.
Not exact matches
The other global flu pandemics over the past century — in 1957, 1968 and 2009 — also followed
cooler sea surface temperatures in the Pacific
Ocean.
But a reduction in the number and intensity of large hurricanes driving
ocean waters on shore — such as this month's Hurricane Joaquin, seen, which reached category 4 strength — may also play a role by
cooling sea -
surface temperatures that fuel the growth of these monster storms, the team notes.
Naturally occurring interannual and multidecadal shifts in regional
ocean regimes such as the Pacific El Niño - Southern Oscillation, the North Atlantic Oscillation, and the Atlantic Multidecadal Oscillation, for example, are bimodal oscillations that cycle between phases of warmer and
cooler sea surface temperatures.
Singer,
cooling period, major, orbital, minor, solar, CO2, saturation, Charney report, no data, adjusting
temperatures, satellite, lower troposphere,
surface - air,
sea surface,
ocean oscillations, ENSO, AMO, PDO, Irma, false alarms, Jose, energy follies, dispatchable electricity, reasonable prices, number???
A well - known issue with LGM proxies is that the most abundant type of proxy data, using the species composition of tiny marine organisms called foraminifera, probably underestimates
sea surface cooling over vast stretches of the tropical
oceans; other methods like alkenone and Mg / Ca ratios give colder
temperatures (but aren't all coherent either).
Cooler than normal
sea surface temperatures (blue shades) were developing in the tropical Pacific
Ocean during October, signaling the possible development of La Nina.
Cooling sea -
surface temperatures over the tropical Pacific
Ocean — part of a natural warm and cold cycle — may explain why global average
temperatures have stabilized in recent years, even as greenhouse gas emissions have been warming the planet.
La Niña is the positive phase of the El Niño Southern Oscillation and is associated with
cooler than average
sea surface temperatures in the central and eastern tropical Pacific
Ocean.
One thing I would have liked to see in the paper is a quantitative side - by - side comparison of
sea -
surface temperatures and upper
ocean heat content; all the paper says is that only «a small amount of
cooling is observed at the
surface, although much less than the
cooling at depth» though they do report that it is consistent with 2 - yr
cooling SST trend — but again, no actual data analysis of the SST trend is reported.
Depending on where the powerful winds cross the Atlantic, the jet stream can have a
cooling or warming effect on
sea surface temperatures in the North Atlantic
Ocean, according to the study, published (May 27 2015) in the journal Nature.
In addition to expending some of the oceanic heat, the wave action of the cyclone tends to mix the
cooler ocean waters below toward the
surface, reducing
sea surface temperatures after the cyclone passes.
Let's compare the warming and
cooling patterns for lower troposphere
temperatures over the
oceans to a spatially complete, satellite - enhanced
sea surface temperature dataset, Reynolds OI.v2.
And for the period of 1997 to 2012, there are no similarities between the warming and
cooling patterns for lower troposphere
temperatures over the
oceans and the satellite - enhanced
sea surface temperature data.
Years - long
ocean trends such as El Niño and La Niña cause alternate warming and
cooling of the
sea surface there, with effects on monsoons and
temperatures around the world.
I also suspect that a good portion of the additional warming shown in the hybrid version of the Cowtan and Way (2013) data (versus their Krig data) comes from the Southern
Ocean surrounding Antarctica, where
sea surface temperatures are
cooling and lower troposphere
temperatures are warming.
Subsequently, climate change has been greatly affected as Antarctic Intermediate Water have
cooled and exerted a tremendous effect on tropical
sea surface temperatures for millions of years via «
ocean tunneling».
They describe abnormally warm or
cool sea surface temperatures in the South Pacific that are caused by changing
ocean currents.
As seen in Figure 2, a
cool phase PDO is associated with
cool sea surface temperatures along the Pacific coast of North America, but the center of the North Pacific
ocean is still quite warm.
By examining the spatial pattern of both types of climate variation, the scientists found that the anthropogenic global warming signal was relatively spatially uniform over the tropical
oceans and thus would not have a large effect on the atmospheric circulation, whereas the PDO shift in the 1990s consisted of warming in the tropical west Pacific and
cooling in the subtropical and east tropical Pacific, which would enhance the existing
sea surface temperature difference and thus intensify the circulation.
At irregular intervals (roughly every 3 - 6 years), the
sea surface temperatures in the Pacific
Ocean along the equator become warmer or
cooler than normal.
Over
ocean stretches with a positive SST anomaly air convection is higher (as the
temperature difference between the warm
sea surface and the
cool air higher up in the troposphere is greater), so a higher likelihood for the formation of depressions exists and more precipitation is to be expected.
The best way to envision the relation between ENSO and precipitation over East Africa is to regard the Indian
Ocean as a mirror of the Pacific
Ocean sea surface temperature anomalies [much like the Western Hemisphere Warm Pool creates such a SST mirror with the Atlantic
Ocean too]: during a La Niña episode, waters in the eastern Pacific are relatively
cool as strong trade winds blow the tropically Sun - warmed waters far towards the west.
This basin - wide change in the Atlantic climate (both warming and
cooling) induces a basin - scale
sea surface temperature seesaw with the Pacific
Ocean, which in turn modifies the position of the Walker circulation (the language by which the tropical basins communicate) and the strength of the Pacific trade winds.
Over the same period of time as the upper
ocean is supposed to have warmed by some 0.05 C (according to ARGO), the
sea surface temperature (HADSST2) has
cooled by 0.063 C.
[later in the report:]
Sea surface temperatures during June 2009 were warmer than average across much of the world's
oceans, with the exception of
cooler - than - average conditions across the southern
oceans.
To say nothing of the warming trends also noticed in, for example: *
ocean heat content * wasting glaciers * Greenland and West Antarctic ice sheet mass loss *
sea level rise due to all of the above *
sea surface temperatures * borehole
temperatures * troposphere warming (with stratosphere
cooling) * Arctic
sea ice reductions in volume and extent * permafrost thawing * ecosystem shifts involving plants, animals and insects
A small amount of
cooling was detected at the
ocean's
surface, consistent with global measurements of
sea -
surface temperature.
Here the land
temperatures warm and
cool faster than the
ocean sea surface temperatures.
Collectively the processes produce 20 to 30 year warmer or
cooler regimes of Pacific
Ocean sea surface temperature — and abrupt shifts between that may be triggered by UV / ozone chemistry modulation of the polar annular modes.
Exactly I will add low solar — sunspot numbers less then 40 solar flux sub 90 will cause overall
sea surface temperatures to decline, due to less UV light which is the light which penetrates the
ocean surfaces to the greatest degree thus warms /
cools the
oceans depending on it's intensity..
A key component of the global hiatus that has been identified is
cool eastern Pacific
sea surface temperature, but it is unclear how the
ocean has remained relatively
cool there in spite of ongoing increases in radiative forcing.
For instance, when the long wave radiation from the upper few micrometers of the
ocean is upward, the skin
temperature is usually
cooler than the bulk SST.Latent and sensible heat fluxes can
cool the
sea surface further if the air is dryer or colder.
Our climate model exposes amplifying feedbacks in the Southern
Ocean that slow Antarctic bottom water formation and increase ocean temperature near ice shelf grounding lines, while cooling the surface ocean and increasing sea ice cover and water column stabi
Ocean that slow Antarctic bottom water formation and increase
ocean temperature near ice shelf grounding lines, while cooling the surface ocean and increasing sea ice cover and water column stabi
ocean temperature near ice shelf grounding lines, while
cooling the
surface ocean and increasing sea ice cover and water column stabi
ocean and increasing
sea ice cover and water column stability.
Over the last month or so warm
sea -
surface temperature [SST] and upper -
ocean heat content anomalies have increased in the near - equatorial central Pacific, while the SST
cool tongue in the near - equatorial far - eastern Pacific has weakened, with warm anomalies now evident there.
Reduced equatorial cloud cover during La Nina (due to the
cooler sea surface temperature), combined with the strong upwelling (Ekman suction) in the eastern equatorial Pacific, does indeed lead to greater warming of the
ocean - because it's bringing
cool subsurface water to the
surface, where it can be heated by the sun.