transcriptomics – Page 2

Endophytic Beauveria spp. Enhance Tomato Growth and Resistance to Botrytis cinerea via Transcriptomic Regulation

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Researchers tested five types of beneficial fungi from the Beauveria genus to see if they could help tomato plants grow better and resist gray mold disease. They found that all five species could live inside tomato plants and help them grow taller. Most importantly, the fungus Beauveria brongniartii completely protected plants from gray mold infection. By examining which genes were activated in the plants, scientists discovered that these fungi boost the plant’s natural defense systems while also improving photosynthesis.

A tale for two roles: Root-secreted methyl ferulate inhibits P. nicotianae and enriches the rhizosphere Bacillus against black shank disease in tobacco

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Tobacco plants release a natural chemical called methyl ferulate from their roots that has a powerful two-pronged defense against a devastating soil disease called black shank. First, the methyl ferulate directly kills the fungus by disrupting its energy production. Second, it attracts beneficial bacteria called Bacillus to the soil around the roots, which further fight the disease. Scientists found they could boost this defense by engineering a tobacco gene that produces more methyl ferulate, making plants much more resistant to infection. This discovery offers farmers an affordable, natural way to control soil diseases without synthetic chemicals.

A Comprehensive Review of the Diversity of Fungal Secondary Metabolites and Their Emerging Applications in Healthcare and Environment

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Fungi naturally produce complex chemical compounds called secondary metabolites that have powerful effects against diseases and pests. These include well-known medicines like penicillin and compounds that can fight cancer, reduce inflammation, and lower cholesterol. Scientists are now using advanced genetic and biotechnology techniques to increase production of these fungal compounds, making them more available and affordable for medical, agricultural, and environmental applications. This research shows how fungi could be important sources of new medicines and sustainable alternatives to synthetic chemicals.

High-Yield-Related Genes Participate in Mushroom Production

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Scientists have identified specific genes that control how mushrooms grow and produce fruit bodies. By using advanced gene-editing technology like CRISPR-Cas9, researchers can now increase mushroom yields by 20-65%, offering a faster and more efficient alternative to traditional breeding methods. This breakthrough could help meet the world’s growing demand for mushrooms while making farming more sustainable and economical for growers globally.

Comparative transcriptomics and metabolomics provide insight into degeneration-related physiological mechanisms of Morchella importuna after long-term preservation

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This research studied how to best preserve morel mushroom cultures for long periods without them losing quality. Scientists compared five different storage methods over 7 years and found that storing cultures in nutrient-poor conditions without repeatedly replicating them produced the healthiest mushrooms. The study identified specific genes and metabolic processes that stayed healthy under the best preservation method, offering farmers better ways to maintain morel quality for cultivation.

Comparative transcriptomic insights into the domestication of Pleurotus abieticola for coniferous cultivation

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Researchers studied a special mushroom called Pleurotus abieticola that can grow on coniferous trees like spruce and larch. Usually, mushrooms prefer broadleaf trees, but this species can thrive on conifer wood, which makes up 70% of Chinese forests. By analyzing the mushroom’s genes and growth conditions, scientists found the best ways to cultivate it and discovered it’s rich in protein and beneficial compounds. This breakthrough could help create sustainable mushroom farming using forest resources that were previously underutilized.

Physiological Insights into Enhanced Epsilon-Poly-l-Lysine Production Induced by Extract Supplement from Heterogeneous Streptomyces Strain

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Researchers discovered that exposing bacteria that produce epsilon-poly-l-lysine (a natural antimicrobial compound) to extracts from another closely related bacterium dramatically increases production by 2.6-fold. Using advanced analysis techniques, they found that this boost occurs because the extract triggers the bacteria to activate defense mechanisms, rerouting its metabolism to produce more of this antimicrobial compound. This finding could significantly reduce the cost of producing this useful natural preservative for foods and medicines, making it more commercially viable.

A comprehensive review of mycotoxins, their toxicity, and innovative detoxification methods

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Mycotoxins are poisons produced by molds that commonly contaminate foods like grains, nuts, and spices, causing serious health problems in people and animals. This comprehensive review examines how these toxins affect our health, how to detect them in food, and various methods to remove or destroy them. Traditional approaches using biological agents and chemicals work well but are only partially effective, while newer innovative methods using nanoparticles and plant extracts show greater promise for more complete protection of our food supply.

Rice varietal intercropping mediates resistance to rice blast (Magnaporthe oryzae) through core root exudates

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Growing different varieties of rice together can help protect susceptible rice plants from blast disease. When resistant and susceptible rice varieties are planted together, the resistant plants release special chemicals from their roots that help the susceptible plants fight off the fungal disease. Scientists identified four key chemicals—azelaic acid, sebacic acid, betaine, and phenyl acetate—that work together to boost the immune system of susceptible rice plants and directly kill the blast fungus.

Leucocalocybe mongolica Fungus Enhances Rice Growth by Reshaping Root Metabolism, and Hormone-Associated Pathways

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Researchers discovered that a special fungus called Leucocalocybe mongolica, when added to soil, significantly improves rice plant growth without requiring chemical fertilizers. Plants grown in fungus-treated soil developed more branches (tillers), had longer roots, and contained more chlorophyll, making them greener and healthier. The study revealed that the fungus works by altering soil nutrients and triggering specific genes in rice roots that boost growth-promoting hormones and improve how plants process energy.

Research Keyword: transcriptomics