mycelial networks – mycolab.ai

Monitoring the impact of confinement on hyphal penetration and fungal behavior

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Scientists created tiny glass channels that mimic soil conditions to study how fungi grow when squeezed into tight spaces. They observed seven different fungal species growing through these channels and measured how fast their thread-like hyphae could push through. Most fungi slowed down in tighter spaces, but each species had unique behaviors, like branching patterns or the ability to push so hard they broke the glass containers.

Beauveria felina Accelerates Growth When Competing With Other Potential Endophytes

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Scientists studied how Beauveria felina, a fungus used to control crop pests, performs when competing with other fungi naturally found in plants. Surprisingly, B. felina grew faster when other fungi were present, suggesting it could be a robust biocontrol agent. However, researchers caution that introducing any new organism to plants requires careful study of how it affects the entire fungal community living in the plant.

Plasticity of symbiotroph-saprotroph lifestyles of Piloderma croceum associated with Quercus robur L.

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A fungus called Piloderma croceum can switch between two lifestyles: breaking down dead wood to get nutrients, and forming beneficial partnerships with living oak tree roots. This research shows that dead wood colonized by this fungus acts like a ‘bank’ of fungal spores that can later establish symbiotic relationships with new trees. This process helps forests thrive by improving how trees obtain nutrients from soil. Understanding this dual lifestyle reveals how deadwood plays an important role in forest health beyond just decomposition.

Electrical integrity and week-long oscillation in fungal mycelia

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Researchers monitored electrical signals in fungal mycelial networks over 100 days to understand how fungi coordinate their activities across space. When fungi encountered wood to decompose, they generated a clear, directional electrical signal from the wood toward the rest of the mycelium, acting like a biological command center. Most remarkably, after 60 days, the fungi developed a week-long electrical rhythm at the wood site, the longest oscillation ever recorded in fungi, which may help the fungus remember resource locations and coordinate its decomposition activities.

Electrical integrity and week-long oscillation in fungal mycelia

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Researchers discovered that fungal mycelia (underground networks of fungal threads) use electrical signals to communicate across their bodies when searching for food like wood. When a fungus found a piece of wood to eat, it generated electrical signals that spread throughout its mycelial network, possibly helping coordinate the fungus’s response. Most remarkably, the fungus exhibited a peculiar electrical rhythm at the food location that cycled every week—the longest such pattern ever observed in fungi.

Cellular anatomy of arbuscular mycorrhizal fungi

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Arbuscular mycorrhizal fungi are special underground fungi that form partnerships with plant roots to help plants grow. Unlike most cells, these fungi form long, tube-like structures without walls dividing them into sections, allowing nutrients and other materials to flow freely throughout their networks. This review explains how these fungi are built at the cellular level, including their walls, membranes, and internal structures, helping scientists better understand how they exchange nutrients with plants and contribute to healthy ecosystems.

Cellular anatomy of arbuscular mycorrhizal fungi

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This comprehensive review explains the unique cellular structure of arbuscular mycorrhizal fungi, which form vast underground networks connecting plants to soil nutrients. These fungi are remarkable because their hyphae lack internal walls, allowing nutrients and organelles to flow freely throughout their continuous cytoplasm. By synthesizing current knowledge about how these fungi are organized and function at the cellular level, the authors highlight how this organization enables the complex nutrient exchange that supports plant growth and ecosystem health worldwide.

Weaving birth: interdependence and the fungal turn

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This article explores how childbirth can be understood through the metaphor of fungal networks, which emphasize connection and interdependence rather than isolation and control. The authors compare two contrasting birth experiences—one marked by feelings of abandonment and the need to defend oneself, the other by trust and surrender—to show how different care models shape birthing experiences. Like fungi that thrive through interconnected relationships, positive births flourish in environments of love, safety, and collective support rather than standardized medical protocols.

Detection of electrical signals in fungal mycelia in response to external stimuli

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Researchers developed a new method to detect and measure electrical signals produced by fungal mycelium using specialized circuit boards and advanced analysis techniques. The study found that fungi generate electrical activity that correlates with their growth, which can be altered by treating them with different chemicals. This discovery suggests that fungi may use electrical signals to communicate and adapt to their environment, similar to how animals and plants use electrical signaling. The new method provides a foundation for better understanding how fungi communicate within their networked mycelial systems.

Mycelial communities associated with Ostrya carpinifolia, Quercus pubescens and Pinus nigra in a patchy Sub-Mediterranean Karst woodland

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This research studied how fungi living in soil connect to different tree roots in a rocky Mediterranean forest in Slovenia. Scientists found that different tree species have their own preferred fungal partners, though some fungi work with multiple trees. The fungi with longer connections through soil were more common under pine trees, while fungi with shorter reach were more common under oak and hornbeam trees.

Research Keyword: mycelial networks