Sentences with phrase «surface ocean wind»

Abstract: Surface ocean wind datasets are required to be of high spatial and temporal resolution and high precision to accurately force or be assimilated into coupled atmosphere - ocean numerical models and understand ocean - atmospheric processes.

Not exact matches

It's signature product is the Submaran ™, the first hybrid wind and solar - powered surface and subsurface vessel designed for extended ocean observation and data collection.
Lockheed Martin Ventures last month invested an undisclosed amount in San Diego - based Ocean Aero — a 25 - employee start - up that is developing the Submaran, a solar - and wind - powered ocean drone capable of operating above and below the surOcean Aero — a 25 - employee start - up that is developing the Submaran, a solar - and wind - powered ocean drone capable of operating above and below the surocean drone capable of operating above and below the surface.
Lockheed Martin Ventures in September month invested an undisclosed amount in San Diego - based Ocean Aero, a 25 - employee startup that is developing the Submaran — a solar and wind powered ocean drone capable of operating above and below the surOcean Aero, a 25 - employee startup that is developing the Submaran — a solar and wind powered ocean drone capable of operating above and below the surocean drone capable of operating above and below the surface.
In addition to temperature, wind, and solar radiation data, the Pacific saildrones are measuring how the ocean and air exchange gases like carbon dioxide and oxygen, and they are using Doppler instruments to gauge currents coursing up to 100 meters below the surface.
Within the next decade, hundreds or even thousands of solar - and wind - powered drones could roam the world's oceans, using satellites to relay information gathered from the sea surface and the air above.
That wind - driven circulation change leads to cooler ocean temperatures on the surface of the eastern Pacific, and more heat being mixed in and stored in the western Pacific down to about 300 meters (984 feet) deep, said England.
When ocean cycle shifts, globe is likely to warm up When climate models were run that included the stronger winds, they were able to reproduce the slowdown in surface temperatures.
They identified wind patterns that mixed the warmer surface and colder deep waters to cool the ocean's surface and reduce the intensity of the storm.
The Tibetan Plateau in China experiences the strongest monsoon system on Earth, with powerful winds — and accompanying intense rains in the summer months — caused by a complex system of global air circulation patterns and differences in surface temperatures between land and oceans.
But research published yesterday in the journal Nature rebuts this idea, suggesting that it was changes in ocean circulation, not winds, that predominantly led the deep water to surface near Antarctica and exhale carbon dioxide to the atmosphere.
As these winds enhance ocean circulation, they may be encouraging carbon - rich waters to rise from the deep, say the team, meaning that surface water is less able to absorb CO2 from the atmosphere.
Driven by stronger winds resulting from climate change, ocean waters in the Southern Ocean are mixing more powerfully, so that relatively warm deep water rises to the surface and eats away at the underside of theocean waters in the Southern Ocean are mixing more powerfully, so that relatively warm deep water rises to the surface and eats away at the underside of theOcean are mixing more powerfully, so that relatively warm deep water rises to the surface and eats away at the underside of the ice.
Rona's team reported in the July Geochemistry, Geophysics, Geosystems that wind - driven waves on the ocean's surface take 13 days to propagate to the vents 2,000 meters below.
In periods when the ocean surface warms (associated with red), the prevailing winds are more prone to sweep down from the north.
Let's say your wind speed is strong, and the wind direction is opposite between the upper levels and the [ocean's] surface — then you get a strong shearing environment.
The prototype SkySail, which completed its first transatlantic voyage last winter, measures 1,700 square feet and can be raised as high as 1,000 feet over the ocean surface to catch the consistently strong winds that swirl above the waves.
The fog is a gift of the Pacific Ocean's California Current where winds create upwellings that bring cold, deep, nutrient - rich waters to the surface.
Weathers believes that «winds and waves kick the surface scum on the ocean high into the air, where it is incorporated into the fog that moves inland.»
They found that adding five years of strong trade winds created powerful ocean currents that buried the warm surface water, bringing cooler water to the surface.
This happened in two steps: First, in the Antarctic zone of the Southern Ocean, a reduction in wind - driven upwelling and vertical mixing brought less deep carbon to the surface.
«I am very interested in these wind speed increases and whether they may have also played some role in slowing down the warming at the surface of the ocean,» said Prof Sherwood.
This ingenious device uses radar to measure the choppiness of the ocean surface, and thereby to infer the speed and direction of the ocean winds (a technique known as scatterometry).
So, in theory, if you could manage to lower the temperature of the surface of the ocean ahead of a hurricane by a few degrees, you could conceivably pull enough heat out of the system that the storm would start to wind itself down.
Winds over the ocean (blue arrow) also create currents on the surface, pushing the water up one side of the wave and down the other.
These effects are reflected in the ocean surface, which is generally smooth underneath the weak winds of the wake and rough under the strong winds outside the wake.
Lozier (p. 1507) discusses how recent studies have challenged our view of large - scale ocean circulation as a simple conveyor belt, by revealing a more complex and nuanced system that reflects the effects of ocean eddies and surface atmospheric winds on the structure and variability of the ocean's overturning.
The wind keeps a layer of warm water near the surface in Indonesia, reducing the temperature difference across the Indian Ocean and so minimising the strength of positive IOD events.
The project, called Estimating the Circulation and Climate of the Ocean (ECCO), uses observational data — including ocean surface topography, surface wind stress, temperature, salinity profiles and velocity data — collected between June 2005 and December Ocean (ECCO), uses observational data — including ocean surface topography, surface wind stress, temperature, salinity profiles and velocity data — collected between June 2005 and December ocean surface topography, surface wind stress, temperature, salinity profiles and velocity data — collected between June 2005 and December 2007.
The movement of water in the ocean is determined by many factors including tides; winds; surface waves; internal waves, those that propagate within the layers of the ocean; and differences in temperature, salinity or sea level height.
A new study has found that turbulent mixing in the deep waters of the Southern Ocean, which has a profound effect on global ocean circulation and climate, varies with the strength of surface eddies — the ocean equivalent of storms in the atmosphere — and possibly also wind spOcean, which has a profound effect on global ocean circulation and climate, varies with the strength of surface eddies — the ocean equivalent of storms in the atmosphere — and possibly also wind spocean circulation and climate, varies with the strength of surface eddies — the ocean equivalent of storms in the atmosphere — and possibly also wind spocean equivalent of storms in the atmosphere — and possibly also wind speeds.
Whipped up by surface winds and girded by the Coriolis effect (produced by Earth's rotation), eddies may grow to several hundred kilometers in diameter and are known to transport heat, chemicals and biology throughout the oceans» shallower depths.
The researchers developed a novel approach to the issue by using climate data from the IPCC and directly modeling all of the components that cause flooding at the coast including, waves, tides, winds blowing over the surface of the ocean and estuaries, precipitation, and stream flow.
Artist's rendering of NASA's ISS - RapidScat instrument (inset), which will launch to the International Space Station in 2014 to measure ocean surface wind speed and direction and help improve weather forecasts, including hurricane monitoring.
During the spring and summer months, deep ocean water rich in carbon dioxide periodically wells up along the California coast when surface waters are pushed offshore by strong winds.
NSCAT will provide regular measurements of ocean surface wind velocity from space.
Over the course of coming decades, though, trade wind speed is expected to decrease from global warming, Thunell says, and the result will be less phytoplankton production at the surface and less oxygen utilization at depth, causing a concomitant increase in the ocean's oxygen content.
The basic scenario goes as follows: Hurricanes — circular storms spinning around a region of low atmospheric pressure — are powered by energy released by spiraling surface winds that draw heat from the ocean.
For example, tides, winds and sea surface temperature could disrupt their migration habits, and ocean color — referring to the water's chemical and particle content — could reflect changes in the food chain.
About 19 months after the wind churned the ocean, cycling warm deep waters upward and sending the cold surface waters down, the Totten ice shelf was noticeably thinner and had sped up.
Over the last decade, the waters off Central California have seen stronger winds, which bring more nutrients, such as nitrate, to the ocean surface.
Results published by NOC scientists in 2015 have already demonstrated the capabilities of spaceborne GNSS - R for ocean surface wind speed retrieval.
«Since oxygen concentrations in the ocean naturally vary depending on variations in winds and temperature at the surface, it's been challenging to attribute any deoxygenation to climate change.
With wind speed exceeding a Category 1 threshold, the ocean surface unexpectedly became more «slippery.»
The effects of wind changes, which were found to potentially increase temperatures in the Southern Ocean between 660 feet and 2,300 feet below the surface by 2 °C, or nearly 3.6 °F, are over and above the ocean warming that's being caused by the heat - trapping effects of greenhouse gOcean between 660 feet and 2,300 feet below the surface by 2 °C, or nearly 3.6 °F, are over and above the ocean warming that's being caused by the heat - trapping effects of greenhouse gocean warming that's being caused by the heat - trapping effects of greenhouse gases.
Linsley said the new results were «exciting,» suggesting that the «poorly understood, rapid rise» in surface temperature from 1910 to 1940 was, in part, «related to changes in trade wind strength and heat release from the upper water column» of the Pacific Ocean.
«The mounting evidence is coalescing around the idea that decades of stronger trade winds coincide with decades of stalls or even slight cooling of global surface temperatures, as heat is apparently transferred from the atmosphere into the upper ocean,» Linsley said.
The researchers reported that the shifting winds «produce an intense warming» just below the surface of the ocean.
Winds over the Atlantic Ocean also appear to modulate global surface temperatures, albeit to a lesser extent than those over the Pacific Ocean.
Many NASA satellites observe environmental factors that are associated with El Niño evolution and its impacts, including sea surface temperature, sea surface height, surface currents, atmospheric winds and ocean color.
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