Research Keyword: metagenomics

Elucidation of Mechanism of Soil Degradation Caused by Continuous Cropping of Dictyophora rubrovalvata Using Metagenomic and Metabolomic Technologies

When farmers grow Dictyophora rubrovalvata mushrooms in the same soil repeatedly, the soil becomes degraded and mushroom production fails. Scientists found that repeated cultivation changes the soil’s microbe populations, reducing beneficial bacteria while increasing harmful fungi, and toxic compounds accumulate that further damage mushroom growth. By understanding these mechanisms through DNA sequencing and chemical analysis, better strategies can be developed to maintain healthy soil for sustainable mushroom farming.

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Genomic insights reveal community structure and phylogenetic associations of endohyphal bacteria and viruses in fungal endophytes

This study examined tiny bacteria and viruses living inside the filaments of fungi that colonize beech tree leaves. Researchers found that different types of bacteria show preferences for specific fungal groups, while viruses are less diverse and mostly DNA-based. Understanding these microscopic communities helps explain how fungi function and could eventually lead to using these organisms for controlling plant diseases.

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Geographic variation in fungal diversity associated with leaf spot symptoms of Coffea arabica in Yunnan, China

Researchers studied the fungi found on coffee leaf spots in two different regions of Yunnan province in China. They discovered that the types of fungi varied significantly between the cooler, higher-altitude Pu’er region (which had more harmful fungi) and the warmer, tropical Xishuangbanna region (which had more beneficial fungi that could fight pests). This information can help coffee farmers choose better disease management strategies based on their location.

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Microbial communities inhabiting the surface and gleba of white (Tuber magnatum) and black (Tuber macrosporum) truffles from Russia

This research identifies the various microorganisms living inside truffles, particularly Tuber magnatum (white truffle) and Tuber macrosporum (black truffle). The study found that a yeast-like fungus called Geotrichum consistently lives in both truffle types and likely helps with spore dispersal through smell-producing compounds. The researchers discovered that different parts of the truffle have different microbial communities, which explains why truffles have such unique flavors and aromas.

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