Research Topic: Population genomics

Population structure in a fungal human pathogen is potentially linked to pathogenicity

Aspergillus flavus is a common fungal infection found in both hospitals and the environment. Researchers studied the genetic makeup of 300 fungal samples from patients and the environment across multiple countries. They discovered that clinical isolates cluster into specific genetic groups, with one group containing most patient-derived samples. This finding suggests that certain genetic populations of this fungus may be better adapted to infecting humans than others.

Read More »

Population structure in a fungal human pathogen is potentially linked to pathogenicity

Researchers studied 300 strains of Aspergillus flavus, a fungus that causes serious infections in people and damages crops. They found that strains causing human infections are not randomly distributed but instead belong to specific genetic groups, particularly a newly identified group called population D. This discovery suggests that certain genetic traits make some strains more likely to infect humans, providing insights that could lead to better treatments and prevention strategies.

Read More »

Select and Resequence Methods Enable a Genome-Wide Association Study of the Dimorphic Human Fungal Pathogen Coccidioides posadasii

Scientists developed a new method to understand how different strains of the fungus Coccidioides posadasii, which causes Valley Fever, respond to temperature changes. By mixing multiple fungal strains together and sequencing their DNA after growing them at different temperatures, they identified a gene that helps determine whether the fungus grows better in hot (body temperature) or cool (environmental) conditions. This discovery could help explain how this dangerous fungus adapts to human infection and may lead to better treatments for Valley Fever.

Read More »

Population structure in a fungal human pathogen is potentially linked to pathogenicity

A. flavus is a common fungal pathogen that causes serious infections in humans and damages crops. Researchers analyzed DNA from hundreds of fungal samples collected from both infected patients and environmental sources. They found that clinical isolates cluster into specific genetic groups, especially a newly identified group called population D that contains most of the disease-causing strains. This suggests that certain genetic variations make some fungal strains more likely to infect humans than others.

Read More »

Exploring Mitochondrial Heterogeneity and Evolutionary Dynamics in Thelephora ganbajun through Population Genomics

Scientists studied the mitochondrial DNA of an edible mushroom species found only in Yunnan, China, called Thelephora ganbajun. They discovered that these mushrooms have unusual genetic diversity in their mitochondria, with multiple different versions of certain genes coexisting within individual organisms. This genetic flexibility appears to be an adaptation that helps the species survive in diverse environmental conditions and prevents the accumulation of harmful mutations.

Read More »
Scroll to Top