Sentences with phrase «warmer regions deep»

Enceladus's venting hints at the presence of warmer regions deep inside — an environment that could support the chemistry of life, Porco says: «It's another place in the solar system that's warm and wet.»

Not exact matches

Muscles must stay warm to remain efficient, but that's a challenge for these beasts because they often swim in near - freezing waters, either in cold regions of the world or deep below the sun - warmed surface.
Scientists thought strong upwelling of colder deep waters spared the region from the warming seen in other parts of the Pacific, she said.
MELT OFF Off the coast of the western Antarctic Peninsula (shown), upwelling of relatively warm, deep water has been linked to the melting of ice shelves, which help buttress the region's glaciers.
«The ocean bed is quite complex, and there are some regions that provide access for warm, deep ocean water to those glaciers,» Scheuchl says.
However, when temperatures warm over the Antarctic regions, deep waters rise from the floor of the ocean much closer to the continent.
One sip of deep, inky purple, and he can distinguish the jammy, syrup - ripe fruit flavor of a shiraz grown in a warm climate from the lean olive notes of a syrah, made from the same grape, grown in a cooler region of France.
Since deeper waters will be warmer, there is a possible link to the global ocean circulating currents that results in warmer water in polar regions.
This is an especially important region of the atmosphere because climate models have forecast the deep layer of the lower atmosphere is the area where CO2 - influenced warming should occur first and by the greatest amounts.
Deeper, warmer pools of water are colored purple, though any region colored from pink to purple has sufficient energy to fuel storm intensification.
The fact that the hindcasts with their method perform worse than a standard IPCC scenario, the number of failed previous cooling predictions, the negative skill in the Gulf Stream and deep - water formation regions... should these not have cautioned them against going to the media to forecast a pause in global warming?
The best simple answer I've seen is basically that you have to go to a 2 - box model of Earth, with warm tropics and cold poles, and then realize that thanks to the thermohaline circulation the deep oceans are coupled almost exclusively to the polar regions, and so are in the «cold» box and not the warm one or some average of them.
To some extent, this is again due to the factors mentioned above, but additionally, the models predict that the North Atlantic as a whole will not warm as fast as the rest of globe (due to both the deep mixed layers in this region which have a large thermal inertia and a mild slowdown in the ocean heat transports).
It is enhanced too by the formation of deep water in the polar regions, but slowed by the warming of the surface ocean.
The structure of the ocean circulation basically anchors this region to something like pre-industrial temperatures, at least until deep bottom water originating in the North Atlantic also warms.
I have to raise an objection to the phrase «the only region of the world that has defied global warming» — that might be neglecting a certain area in the Pacific where England 2014 has identified a very obvious point where the «Pacific conveyor» was bringing in the last decade up a lot of cold water from the deep ocean and has possibly played a major role in the specific trends for that period.
Consenquently, the associated SST pattern is slightly cooler in the deep convection upwelling regions of the Equitorial Pacific and the Indian Ocean, strongly cooler in the nearest deep convection source region of the South Atlantic near Africa and the Equator, warm over the bulk of the North Atlantic, strongly warmer where the gulf stream loses the largest portion of its heat near 50N 25W, and strongly cooler near 45N 45W, which turns out to be a back - eddy of the Gulf Stream with increased transport of cold water from the north whenever the Gulf Stream is running quickly.
Aside from the fact that 90 degrees north sits in the middle of a 2.5 - mile - deep ocean, that's quite a statement considering two things: first, no one has been routinely monitoring sea ice along both coastlines between then and now, and second, the region was clearly warmer than it is today (in summers) around 8,000 to 10,000 years ago — on both the Siberian and North American sides.
The total change in ocean heat, including deep water regions is the best gauge of global warming.
But mapping with ice - penetrating radar has revealed a low - lying region cut by glacially carved channels that drop as far as 8,500 feet below sea level — perfect for guiding warm ocean water deep into the heart of the ice sheet.
As discussed in the following section, the absence of significant warming in the Circumpolar Ocean of the Southern hemisphere is attributable mainly to the large thermal inertia of the ocean, which results from very effective mixing between the surface layer and the deeper layers of ocean in this region.
Changes in the weather system across the Scandinavian region are pushing very warm, moisture - laden Atlantic air into the Arctic and very cold Arctic air into Northern Eurasia, leading much of Europe into a deep freeze this week.
If polar vortices are driven further and further south, drawing up warmer air from middle latitudes toward the pole and supplanting them with Arctic chill, then many nations might experience cooling, while the generally unmonitored Arctic Circle region experiences substantial restructuring of sea ice as well as surface warming and deep ocean warming too.
The influx could slow down or shut off the North Atlantic Deep Water (NADW) formation, the driving factor behind the conveyor belt current known as thermohaline circulation, which brings large amounts of warm water to the North Atlantic region.
Amplifying this threat is a potential trigger for this instability that surrounds the region: a mass of warm water known as Circumpolar Deep Water (CDW).
Warm SSTs in this region, and the enhanced deep convection, have been connected to a standing - wave pattern in the atmosphere from the tropics to higher latitudes in a manner similar to that associated with ENSO, but with roots farther west.
Furthermore, the low - frequency variability in the SPG relates to the propagation of Atlantic meridional overturning circulation (AMOC) variations from the deep - water formation region to mid-latitudes in the North Atlantic, which might have the implications for recent global surface warming hiatus.»
Earlier research, based on deep sea sediments deposited between the last Ice Age and the present warm period, has found evidence of eight melting events in the region, the largest occurring 14,700 years ago.
Note the temporary decrease in magnitude of the cold wake in one area behind the storm, indicative of the passage of the storm over a region containing the deep warm water of the Gulf of Mexico Loop Current.
Global warming could have especially strong impacts on the regions of oceanic subpolar fronts, where the temperature increase in deep water could lead to a substantial redistribution of pelagic and benthic communities, including commercially important fish species.
Scientists thought strong upwelling of colder deep waters spared the region from the warming seen in other parts of the Pacific, she says.
Rising ocean temperatures due to global warming — which could be drawing unfamiliar fishes to the region — and increased deep - sea fishing may be responsible for the spike in fresh fish faces seen off Greenland.
What is more, the water there would not be particularly warm, so it is quite possible for it to warm the deep oceans while having little influence on the intermediate regions.
This implies that future ocean warming may likewise see greater warming rates (at some point), in the deep ocean and higher latitudes, than the equatorial regions.
With the use of a climate model of intermediate complexity, we demonstrate that with mwp - 1A originating from the Antarctic Ice Sheet, consistent with recent sea - level fingerprinting inferences, the strength of North Atlantic Deep Water (NADW) formation increases, thereby warming the North Atlantic region and providing an explanation for the onset of the Bølling - Allerød warm interval.
They explain the lesser warming in the East Pacific Ocean, near South America, as being due to the fact this region is kept cool by upwelling, rising of deeper colder water to shallower depths.
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