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Content Tagged "fungi"

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July 15, 2011

Serpula genome project on MyCor Fungal Web Genomics

The other good news of this Bastille Day: our paper on the Serpula lacrymans genome is reported online July 14 in Science Express. The Domestic Dry Rot (Serpula lacrymans, Basidiomycete, Coniophoraceae) comprises two subgroups, S. lacrymans varshastensis, found in montane conifer forests in the Himalayan foothills, and S. lacrymans var lacrymans, cause of building dry rot, which diverged in historic time [Kauserud et al. (2007) Mol. Ecol.16: 3350-3360].  Read… [Read More]

July 13, 2011

DOE JGI’s role in national quest for cellulosic biofuels in the New York Times

The rumen is like a huge bathtub, he said, holding about 50 large soda bottles’ worth of fluid redolent with bacteria. Relying on these symbiotic microbes, cows eat up to 150 pounds of grass a day, a food inedible to most animals, including humans. Hess was after those microbial secrets, and the placid heifer was… [Read More]

July 11, 2011

Mycosphaerella genome project in Capital Press

Septoria typically infects young seedlings that have recently emerged, creating lesions, and spreading to the higher leaves. It can affect yield and quality, Goodwin said. Control methods are typically fungicide sprays, he noted. Igor Grigoriev, of the U.S. Department of Energy’s Joint Genome Institute in Walnut Creek, Calif., has been sequencing the genomes of other… [Read More]

June 15, 2011

Mycosphaerella project in Media Newswire

Enzymes often break down plant cell walls and begin removing nutrients, leading to the plant’s death. M. graminicola, however, enters the plant through stomata, small pores in the surface of leaves that allow for exchange of gases and water.  Goodwin said the fungus seems to lay dormant between plant cells, avoiding detection. It later infects… [Read More]

June 10, 2011

Mycosphaerella genome project in Agricultural Research

The pathogen that causes the disease, Mycosphaerella graminicola, has a long “silent period,” a latent stage during which it takes nutrition from the living plant and evades the host plant’s natural defenses. Scientists previously did not have a good understanding of how the organism infects wheat, or how the wheat plant itself resists the pathogen…. [Read More]

June 10, 2011

Mycosphaerella genome project in Farmers Guardian

SCIENTISTS have cracked the genetic code of septoria tritici – the most important foliar disease of wheat in the UK – and in doing so have gained an insight into how the disease is able to evade wheat’s natural defences. The researchers, who were funded by the BBSRC and others, hope the study, which reveals… [Read More]

June 10, 2011

First Finished Filamentous Fungus

An international consortium of scientists, including scientists from DOE JGI, have published the analysis for Mycosphaerella graminicola, the first filamentous fungus to be fully finished. Having the 39.7 million nucleotide genome available will enable researchers to learn more about the methods plant pathogens use to attack and damage crops, including those being considered for use… [Read More]

May 31, 2011

Poplar rust genome project on Wisconsin Ag Connection

The sequencing of the genetic codes of wheat stem rust pathogen (Puccinia graminis) and poplar leaf rust pathogen (Melampsora larici-populina) is expected to help researchers develop control strategies to address worldwide threats to wheat fields and tree plantations. The study, published in the Proceedings of the National Academy of Sciences, was a six-year collaborative effort… [Read More]

May 31, 2011

A.niger genome project on The Bioenergy Site

Published online ahead of print May 4, 2011 in Genome Research, a team led by Scott Baker of the Pacific Northwest National Laboratory compared the genome sequences of two Aspergillus niger strains to, among other things, better harness its industrial potential in biofuels applications. As more than a million tons of citric acid are produced annually, the production… [Read More]

May 20, 2011

Fungal lessons for large-scale “green” chemical production

The chemical compound citric acid has been produced on a large-scale basis for decades with the help of the filamentous fungus Aspergillus niger. The fungus also has enzymes that can be used to help break down plant cell walls for biofuel production, and it plays a key role in the carbon cycle. Aspergillus niger (Sue… [Read More]
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