Research Keyword: fungal interactions

Movement of bacteria in the soil and the rhizosphere

mycolabadmin

Bacteria in soil move in many different ways to find food and avoid danger. Some swim using tiny whip-like flagella, others slide across surfaces, and many hitch rides on fungi or get transported by tiny predatory organisms. The ways bacteria move depend heavily on soil moisture, pore structure, and interactions with other microorganisms. This movement affects nutrient cycling and soil productivity, making it important for agriculture and ecosystem health.

Read More »

Diversity and effect of Trichoderma isolated from the roots of Pinus densiflora within the fairy ring of pine mushroom (Tricholoma matsutake)

mycolabadmin

This research examines the different types of Trichoderma fungi found in soil and roots where pine mushrooms grow. Scientists identified nine different Trichoderma species and tested how their chemical compounds affect pine mushroom growth. Some Trichoderma species helped pine mushrooms grow better, while others hindered growth. These findings suggest that managing beneficial Trichoderma could help improve pine mushroom cultivation in the future.

Read More »

Beauveria felina Accelerates Growth When Competing With Other Potential Endophytes

mycolabadmin

Scientists studied how Beauveria felina, a fungus used to control crop pests, grows when living alongside other fungi naturally found in plants. They discovered that instead of being inhibited by competitors, B. felina actually grew much faster when other fungi were present. In some cases, an inhibition zone formed between B. felina and one competitor fungus, suggesting they produce chemicals that affect each other’s growth. These findings suggest B. felina could be a good biocontrol agent, but researchers need to study longer-term effects before using it widely on farms.

Read More »

Coexistence of Malassezia Species and Microsporum canis in the Lesions of Adult with Tinea Capitis

mycolabadmin

A 60-year-old woman developed unusual hair loss and rash on her scalp that looked like dandruff. Tests revealed three types of fungi, including Microsporum canis (usually found in animals) and two types of Malassezia yeast. Treatment with antifungal medications for three months cleared the infection. Laboratory experiments showed that the yeast species may actually help the fungus grow better, which could explain why adults sometimes get scalp fungal infections differently than children.

Read More »

Mechanisms and impacts of Agaricus urinascens fairy rings on plant diversity and microbial communities in a montane Mediterranean grassland

mycolabadmin

Fairy ring fungi create circular patterns in grasslands by forming dense underground networks that dramatically change soil properties and plant communities. The study found that these fungal rings reduce plant diversity by 40% at their advancing edge while boosting grass growth inside the ring, creating a stark ecological shift. The fungi produce calcium oxalate crystals that make soil very water-repellent, causing nearby plants to dry out and die. This research shows how a single fungus species can reshape entire ecosystems through physical and chemical changes in the soil.

Read More »

A mass spectrometry-based strategy for investigating volatile molecular interactions in microbial consortia: unveiling a Fusarium-specific induction of an antifungal compound

mycolabadmin

Scientists developed a new method to study how different fungi communicate and compete with each other through invisible chemical signals called volatile organic compounds. By growing three types of fungi together in a controlled setup, they discovered that Fusarium culmorum specifically produces a compound called γ-terpinene when in contact with other fungi. This compound acts as a natural antifungal agent, helping Fusarium fight off competing fungi. This research provides a blueprint for understanding complex fungal interactions in environments like human lungs and could eventually help diagnose or prevent fungal-related diseases.

Read More »

Automatic classification of fungal-fungal interactions using deep learning models

mycolabadmin

Researchers developed an artificial intelligence system that automatically analyzes images of fungi growing together to identify which ones can fight off disease-causing fungi. Instead of having humans manually look at thousands of plate images, which is time-consuming and subjective, their computer vision system can classify the outcomes with 95% accuracy. This automation tool could help scientists quickly find beneficial fungi that could replace chemical pesticides in agriculture, supporting the goal of sustainable and more environmentally friendly farming.

Read More »
Scroll to Top