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University of Georgia


How did chemical constituents essential to life arise on primitive Earth?

A team of chemists at the University of Georgia has proposed a mechanism for how adenine, a key component of DNA, might be formed from five cyanide molecules under terrestrial conditions. The research suggests that simple molecules can combine chemically to form the building blocks of life, offering a new answer to an unsolved puzzle.

SourceUniversity of Georgia·JournalProceedings of the National Academy of Sciences·DateOct 30, 2007

UGA researchers 1 step closer to elusive cancer vaccine

Researchers at the University of Georgia Cancer Center have synthesized a carbohydrate-based vaccine that successfully triggered a strong immune response to cancer cells in mice. The vaccine has shown promise in creating an antibody response that can kill cultured epithelial cells and stimulating an immune response in healthy mice.

SourceUniversity of Georgia·JournalNature Chemical Biology·DateOct 29, 2007

Species still have more viable offspring if they can choose their best mate

A new study by the University of Georgia shows that when animals cannot choose their preferred mate, females and males find ways to compensate, increasing the chances of their offspring's survival. This supports the Compensation Hypothesis, which suggests individuals can pass on genes even under less-than-ideal circumstances.

SourceUniversity of Georgia·JournalProceedings of the National Academy of Sciences·DateSep 18, 2007

New biofuel from trees developed at UGA

Researchers at UGA have developed a new biofuel derived from wood chips that can be blended with biodiesel and petroleum diesel, offering a boost to the economy. The process, which involves pyrolysis, produces a liquid bio-oil that is nearly carbon neutral, reducing heat-trapping carbon dioxide in the atmosphere.

SourceUniversity of Georgia·JournalEnergy & Fuels·DateMay 18, 2007

UGA scientists engineer root-knot nematode resistance

Researchers at the University of Georgia have discovered a way to halt damage caused by root-knot nematodes, devastating plant pathogens worldwide. By genetically modifying plants with RNA interference, they've created crops resistant to all four most economically important species, offering a sustainable solution for growers.

SourceUniversity of Georgia·JournalProceedings of the National Academy of Sciences·DateSep 27, 2006

Discovery of metabolic pathway for parasite could lead to new controls for diseases

A research team at the University of Georgia has identified a crucial metabolic pathway in Toxoplasma gondii that is essential for its survival. This discovery could lead to the development of new drugs to control the parasite's effects on humans and animals, particularly pregnant mothers and those with compromised immune systems.

SourceUniversity of Georgia·JournalProceedings of the National Academy of Sciences·DateAug 14, 2006