Disease: fungal infections

Plants, fungi, and antifungals: A little less talk, a little more action

Plants and fungi communicate through small chemical molecules, and scientists are discovering that understanding this dialogue could lead to new antifungal medicines. Researchers found that a plant hormone called strigolactone affects a specific fungal protein involved in nutrient uptake, suggesting this could be a target for new drugs. By using baker’s yeast as a laboratory model, scientists can study how fungal cells respond to plant chemicals and identify new ways to fight dangerous fungal infections that are becoming resistant to current treatments.

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Synthesis, Physicochemical Properties and Anti-Fungal Activities of New Meso-Arylporphyrins

Researchers created three new porphyrin compounds that effectively kill fungal infections like Candida and athlete’s foot fungi. These compounds can also generate singlet oxygen when exposed to light, making them potentially useful for photodynamic therapy treatments. Testing showed they inhibited fungal growth at relatively low concentrations, suggesting they could become new antifungal medications.

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Targeted long-read sequencing analysis and antifungal susceptibility profiles of Sporothrix schenckii isolates from Thailand

Researchers in Thailand studied a fungal infection called sporotrichosis by using advanced DNA sequencing technology to identify the exact species and understand how different strains are related to each other. They found that while current treatment options work, some strains are becoming resistant to the main drug used (itraconazole). The study shows that a newer, faster DNA sequencing method can be just as reliable as traditional methods for identifying these dangerous fungi and tracking how they spread between cats and humans.

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Modeling of mold inactivation via cold atmospheric plasma (CAP)

This research develops a mathematical model to predict how cold atmospheric plasma kills mold, which is important because molds produce toxins that harm human and animal health and damage food and buildings. The model uses equations to describe mold growth and plasma effects, allowing researchers to predict outcomes in minutes rather than waiting weeks for lab experiments. The study found that plasma is most effective when its killing power matches the mold’s natural growth rate, causing complete extinction.

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Clinical Significance and Therapeutic Challenges of Scedosporium spp. and Lomentospora prolificans Isolates in a Single-Center Cohort of Lung Transplant Recipients

This study examined rare but serious fungal infections caused by Scedosporium and Lomentospora in lung transplant patients. Of 576 transplant recipients, 11 (2%) developed these infections, which are difficult to treat due to natural resistance to most antifungal medications. The infection type greatly influenced outcomes, with disseminated Lomentospora infections causing 100% mortality despite treatment. The research highlights the urgent need for new diagnostic methods and more effective antifungal drugs to combat these emerging pathogens.

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Functional analysis of a novel endo-β-1,6-glucanase MoGlu16 and its application in detecting cell wall β-1,6-glucan of Magnaporthe oryzae

Scientists discovered and studied a special enzyme called MoGlu16 from rice blast fungus that breaks down a key component of fungal cell walls called β-1,6-glucan. This enzyme can be used to visualize where this cell wall component is located in the fungus at different stages of its life cycle. When applied to fungus spores, the enzyme prevents them from sprouting and forming infection structures, making it a promising candidate for developing new ways to control rice blast disease.

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Leveraging synthetic genetic array screening to identify therapeutic targets and inhibitors for combatting azole resistance in Candida glabrata

Candida glabrata is a dangerous fungus causing serious infections that is becoming resistant to antifungal drugs. Researchers used a genetic screening technique to find genes that interact with drug resistance mutations and identified methotrexate (a drug already used for arthritis) as a potential partner for fluconazole treatment. When combined, these drugs work better together against resistant strains of the fungus, offering hope for treating these stubborn infections.

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Harnessing pycnidia-forming fungi for eco-friendly nanoparticle production, applications, and limitations

Certain fungi called pycnidial fungi can create tiny particles called nanoparticles that are useful in medicine, agriculture, and environmental cleanup. These fungi naturally produce chemicals and enzymes that reduce metal ions into nanoparticles, which have antimicrobial and cancer-fighting properties. While this biological approach is more environmentally friendly than chemical methods, scientists still need to solve challenges like making it work at large scales and ensuring the nanoparticles are safe and stable.

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Do farnesol and tyrosol production in Candidozyma auris biofilms reflect virulence potential?

Researchers discovered that a dangerous fungus called Candidozyma auris produces signaling molecules called farnesol and tyrosol in biofilms. These molecules appear to be linked to how dangerous the fungus is—strains that produce more of these molecules were more virulent in infection studies. Understanding these signaling molecules could help develop new strategies to fight this drug-resistant pathogen.

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Antifungal Effects of the Phloroglucinol Derivative DPPG Against Pathogenic Aspergillus fumigatus

Scientists developed a new antifungal compound called DPPG based on a natural antibacterial molecule produced by soil bacteria. This synthetic derivative showed strong activity against dangerous fungal pathogens like Aspergillus fumigatus and Candida species, which cause serious infections in humans. The compound works by disrupting the fungal cell membrane, causing it to leak and die. Testing in insect models demonstrated effectiveness comparable to current clinical antifungal medications.

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