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Dual internal clocks keep plant defenses on schedule

A Duke University study shows that two biological clocks work together to help plants deal with fungal infections, while maintaining an already-packed daily schedule of activities. The researchers identified a gene called NPR1 that links the two clocks, allowing them to work together and optimize plant defenses.

SourceDuke University·JournalNature·DateJun 22, 2015

Boosting gut bacteria defense system may lead to better treatments for bloodstream infections

A study published in Nature Medicine found that enhancing a specific immune response can kill infection-causing fungi, such as Candida albicans, which causes life-threatening bloodstream infections. The researchers discovered that stimulating the transcription factor HIF-1α with L-mimosine led to increased production of natural antibio...

SourceUT Southwestern Medical Center·JournalNature Medicine·DateJun 8, 2015

Engineering bacteria to design vaccines

The EU-funded MycoSynVac project combines gene engineering and biotechnology to design a novel veterinary vaccine chassis based on Mycoplasma pneumoniae. This chassis will be used to create specific vaccines against two highly detrimental pathogens, as well as for cell therapy and infectious lung disease treatment.

An unexpected role for calcium in controlling inflammation during chronic lung infection

Researchers at NYU Langone Medical Center identified a crucial role for calcium signaling in controlling inflammation during chronic lung infection caused by Mycobacterium tuberculosis. Calcium channels play a key role in shutting down the immune response and preventing injurious inflammation.

SourceNYU Langone Health / NYU Grossman School of Medicine·JournalJournal of Clinical Investigation·DateMay 4, 2015

How a deadly fungus evades the immune system

A recent study published in Nature Communications has found that a little bit of sugar on the surface of fungal cells triggers the death of immune cells that would otherwise kill the fungus. This discovery could lead to a new therapeutic strategy for treating Candida albicans, one of the most common causes of bloodstream infections.

SourceUniversity of Toronto·JournalNature Communications·DateMar 31, 2015

Malassezia yeasts -- everywhere and sometimes dangerous

Researchers discuss the role of Malassezia yeasts as pathogens, highlighting common skin diseases such as dandruff and atopic eczema. The study also explores the potential link between Malassezia and skin cancer, as well as bloodstream infections in vulnerable populations.

SourcePLOS·JournalPLOS Pathogens·DateJan 8, 2015

New study charts the global invasion of crop pests

A new study led by the University of Exeter warns that many global crop-producing countries will be overwhelmed by pests within the next 30 years if current trends continue. The research identifies the most invasive pest species, including fungi and nematodes, which are expected to spread rapidly due to climate change.

SourceUniversity of Exeter·JournalGlobal Ecology and Biogeography·DateAug 27, 2014

Zombie ant fungi 'know' brains of their hosts

A parasitic fungus controls the behavior of ants by emitting specific chemicals when encountering their brain, not when infecting other ant species. The fungus produces a mixture of known and unknown chemicals that work in synergy to manipulate the ants' behavior.

SourcePenn State·JournalBMC Evolutionary Biology·DateAug 25, 2014

Fungus deadly to AIDS patients found to grow on trees

Researchers at Duke University have identified three tree species as environmental hosts for the fungus Cryptococcus gattii, which causes life-threatening lung and brain infections. The study found that these tree species can serve as sources of human infections, particularly for individuals with compromised immune systems.

SourceDuke University·JournalPLOS Pathogens·DateAug 21, 2014

Team studies immune response of Asian elephants infected with a human disease

A study by University of Illinois researchers found that TB-infected elephants have different immune responses to the infection compared to those without it. The team developed a new method to detect cytokine mRNA in elephants, which could lead to faster and more accurate diagnosis of tuberculosis in captive elephants.

Recalled yogurt contained highly pathogenic mold

A study by Duke University scientists identified a highly virulent strain of Mucor circinelloides fungus in Chobani yogurt that caused severe symptoms in consumers. The researchers found that the fungus can survive passage through the gastrointestinal tract and produce a lethal systemic infection in diabetic mice.

SourceDuke University·JournalmBio·DateJul 8, 2014

Study shows restored immunity for cancer-related fungal infections

A study at the University of Texas MD Anderson Cancer Center used the Sleeping Beauty gene transfer system to modify T cells and fight invasive Aspergillus fungus. The approach has implications for genetically modifying T cells to target carbohydrate antigens, broadening their application in treating pathogens and malignancies.

SourceUniversity of Texas M. D. Anderson Cancer Center·JournalProceedings of the National Academy of Sciences·DateJul 7, 2014

Marriage of convenience with a fungus

Researchers found that not all plants react to the fungus in the same way, with some experiencing increased catalpol and citric acid levels while others show little change. The study's findings suggest that the impact of the fungal symbiosis on plant chemistry is not uniform across all plant species.

SourceBielefeld University·JournalNature Communications·DateMay 22, 2014

Treatment for deadly yeast disease reduced to 3 days

A new study by University of Liverpool scientists has reduced the treatment for a brain infection caused by fungus to just three days. The research found that the commonly used drug amphotericin B deoxycholate (dAmB) is effective in clearing the fungus within three days, making it a game-changer for people with weakened immune systems ...

SourceUniversity of Liverpool·JournalmBio·DateApr 24, 2014

Potent, puzzling and (now less) toxic: Team discovers how antifungal drug works

Scientists have solved a decades-old medical mystery by understanding the mechanism of action of amphotericin, an antifungal drug that has been in use for over 50 years. The researchers found that most of the drug aggregates on the exterior of membranes, extracting sterols out of membranes like a sponge, leading to cell death.