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Search results for “Ocean Salinity”

1,000+ results for "Ocean Salinity"

Long-term study reveals: The deep Greenland Sea is warming faster than the world ocean

A long-term study has revealed that the deep Greenland Sea is warming at a rate ten times higher than the global ocean, with potential consequences for European climate. The warming is caused by changes in the interplay of two processes: cooling from above and warming from below.

Rapid upper ocean warming linked to declining aerosols

Scientists from CSIRO and the University of NSW attribute rapid ocean warming to global greenhouse gas emissions and aerosol decline. Models show a 30-year delay in Indian Ocean warming due to aerosol levels, highlighting human-emitted aerosols' significant impact on remote ocean temperatures.

SourceCSIRO Australia·JournalScientific Reports·DateJul 22, 2013

Rapid climate change and the role of the Southern Ocean

A study published in Nature Geoscience reveals that oceanographic reorganisations and biological processes linked to airborne dust in the Southern Ocean drove past rapid fluctuations in atmospheric carbon dioxide levels. The research found large changes in chemical stratification of the Southern Ocean on millennial timescales, highligh...

SourceCardiff University·JournalNature Geoscience·DateApr 8, 2013

University of Maryland School of Medicine discovers adaptations to explain strategies for survival on Mars

Researchers found differences in core proteins from a microorganism that lives in a salty lake in Antarctica, enabling it to tolerate high salinity and desiccation. The study reveals potential adaptations for life on Mars, with scientists exploring the use of these protein modifications to engineer novel enzymes and catalysts.

Surviving without ice

Researchers discovered Arctic crustaceans migrate below sea ice during winter nights, using deep-ocean currents to reach colder areas. This adaptation increases survival and enables them to remain in the Arctic Ocean, a key finding that challenges previous perceptions of ice fauna's vulnerability.

SourceUniversity of Delaware·JournalBiology Letters·DateSep 13, 2012

Past tropical climate change linked to ocean circulation, says Texas A&M team

Researchers have discovered that subsurface temperatures in the western tropical Atlantic rapidly warmed during cold periods in Earth's past. This finding suggests that when the global conveyor belt slowed down, warm subsurface waters flowed southward and rapidly warmed the deep tropics, altering climate patterns globally.

SourceTexas A&M University·JournalProceedings of the National Academy of Sciences·DateAug 23, 2012

1 in 5 streams damaged by mine pollution in southern West Virginia

A new study by Duke University scientists reveals that surface coal mining is severely impacting water quality in southern West Virginia. The research found that just five percent of upstream land conversion can lead to the degradation of up to 22% of streams, with salinity levels and insect biodiversity declining substantially.

SourceDuke University·JournalEnvironmental Science & Technology·DateJul 30, 2012

Marcellus brine migration likely natural, not man-made

A Duke University study suggests naturally occurring pathways allowed salts and gases from the Marcellus shale formation to migrate into shallow drinking water aquifers. The study found elevated levels of salinity with similar geochemistry to deep Marcellus brine in drinking water samples.

SourceDuke University·JournalProceedings of the National Academy of Sciences·DateJul 9, 2012

NSF funds University of Miami, Navy Postgraduate School research in ocean dynamics

A new collaborative study between the University of Miami and Navy Postgraduate School will investigate critical oceanic processes involved in Large-Scale Eddy-Driven Patterns (LEDPs). The project aims to improve understanding of LEDPs, which can impact climate projections and transport heat, salinity, momentum, and carbon.

World breakthrough on salt-tolerant wheat

A team of Australian scientists has bred salt tolerance into a variety of durum wheat, showing improved grain yield by 25% on salty soils. The research uses non-GM crop breeding techniques and introduces a salt-tolerant gene that works by excluding sodium from the leaves.

SourceUniversity of Adelaide·JournalNature Biotechnology·DateMar 11, 2012