Research Keyword: mycorrhizal helper bacteria

Multi-meta-omics reveal unique symbiotic synchronization between ectomycorrhizal fungus and soil microbiome in Tricholoma matsutake habitat

Researchers studied the complex relationship between matsutake mushrooms and the microorganisms in the soil where they grow. They discovered that matsutake fungi create special partnerships with specific bacteria that help them thrive, and that all these organisms work together in coordinated metabolic ways. The study reveals that understanding these underground partnerships is crucial for potentially cultivating matsutake mushrooms commercially in the future.

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The Soil Bacterial Community Structure in a Lactarius hatsudake Tanaka Plantation during Harvest

Researchers studied the soil bacteria in Lactarius hatsudake mushroom plantations to understand which bacteria help these valuable mushrooms grow. They found that mushroom-producing areas had different and less diverse bacterial communities compared to control areas, with specific bacteria like Burkholderia species being particularly abundant. These beneficial bacteria appear to create a stable environment that supports mushroom development, which could help improve mushroom farming practices in the future.

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Effect of Selected Truffle-Associated Bacteria and Fungi on the Mycorrhization of Quercus ilex Seedlings with Tuber melanosporum

Black truffles are prized delicacies that are cultivated by inoculating seedlings with truffle fungus in specialized nurseries. This research tested whether beneficial bacteria and fungi found naturally in truffles could improve the inoculation success in oak seedling nurseries. One bacterial strain, Agrobacterium tumefaciens, significantly improved how well truffles colonized the seedling roots, suggesting that carefully selected microbial co-inoculants could enhance truffle farm productivity.

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Rhizosphere Bacterial Communities Alter in Process to Mycorrhizal Developments of a Mixotrophic Pyrola japonica

This study explores how bacteria living around plant roots change as the plant develops its relationship with fungi. Researchers found that when fungi fully colonized plant roots in Pyrola japonica, the bacterial community became less diverse but more stable. Even after fungi died off, the bacterial community remained, suggesting these bacteria play an important long-term role in helping the plant obtain nutrients and resist diseases.

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Biocontrol of Fusarium oxysporum f. sp. cepae on Indonesian Local Garlic Plants (Lumbu Hijau) Using a Consortium of Bacillus amyloliquefaciens B1 and Arbuscular Mycorrhizal Fungi

Researchers developed an effective biological solution to protect Indonesian garlic plants from a destructive fungal disease called Fusarium wilt. Using a combination of beneficial bacteria (Bacillus amyloliquefaciens) and fungi (arbuscular mycorrhizal fungi), they reduced disease damage by 39% while making plants grow larger and stronger. This natural approach offers a safer alternative to chemical fungicides and could help garlic farmers maintain healthy crops.

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Rhizosphere Bacterial Communities Alter in Process to Mycorrhizal Developments of a Mixotrophic Pyrola japonica

This study examined how bacteria living around plant roots change as fungi form partnerships with a plant called Pyrola japonica. Researchers identified three stages of fungal development and found that bacterial communities were most diverse when fungi had not yet colonized roots or when they were degenerating. The findings suggest that fungi help shape and maintain the bacterial communities around roots, creating a beneficial three-way partnership between plants, fungi, and bacteria.

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Biocontrol of Fusarium oxysporum f. sp. cepae on Indonesian Local Garlic Plants (Lumbu Hijau) Using a Consortium of Bacillus amyloliquefaciens B1 and Arbuscular Mycorrhizal Fungi

Researchers in Indonesia developed a natural way to protect garlic plants from a serious fungal disease using a combination of beneficial bacteria (Bacillus amyloliquefaciens) and fungi (arbuscular mycorrhizal fungi). When applied together, these microorganisms reduced disease by 84% while also making the garlic plants grow taller and produce more biomass. This provides farmers with an environmentally friendly alternative to chemical fungicides.

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