biofilm inhibition – Page 3

Graphene nanomaterials: A new frontier in preventing respiratory fungal infections

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Graphene nanomaterials, especially nano-graphene oxide, show promise as new treatments for serious lung fungal infections that particularly threaten people with weakened immune systems. These tiny materials work by generating damaging reactive oxygen species that kill fungal cells and prevent biofilm formation. Unlike traditional antifungal drugs, nano-graphene oxide can be delivered directly to infected lung tissue via inhalation, delivering medicine exactly where needed while reducing harmful side effects throughout the body.

The efficacy of luliconazole and caspofungin on planktonic and biofilm of Candida albicans from different sources

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Candida albicans, a common yeast infection organism, can form tough protective structures called biofilms that resist antifungal medications. This study tested two antifungal drugs (luliconazole and caspofungin) against Candida in both regular form and biofilm form. The results showed that while these drugs work well against regular Candida cells, they are much less effective against biofilms, which require 15-171 times higher doses to be inhibited. The strongest biofilms came from vaginal infections, suggesting that different infection types may require different treatment approaches.

Past, present and future of antifungals: Advancements in mechanisms of action and resistance

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Fungal infections are a growing global health problem, particularly for people with weakened immune systems, causing millions of deaths annually. Current antifungal medications are limited and increasingly ineffective due to drug-resistant fungi. This special issue explores new treatment strategies including novel drugs, combination therapies, and innovative approaches like nanoparticles and antimicrobial peptides to combat these serious infections.

Drug repurposing to fight resistant fungal species: Recent developments as novel therapeutic strategies

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This editorial highlights the growing problem of fungal infections that resist current treatments, causing millions of deaths worldwide each year. Researchers are finding new ways to fight these resistant infections by repurposing existing drugs in new combinations and discovering novel compounds from natural sources. The collection of studies presented shows promising results using combinations like minocycline with antifungal drugs, natural compounds like baicalin, and AI technology to predict resistance patterns. These innovative approaches offer hope for better treatment options for patients suffering from serious fungal infections.

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

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Scientists are using special fungi called pycnidial fungi to create tiny nanoparticles that could revolutionize medicine and environmental cleanup. These fungi naturally produce chemicals that can turn metal into useful nanoparticles without the toxic processes used in factories. The resulting nanoparticles show promise in fighting bacteria, cancer cells, and cleaning polluted water, offering a safer and more eco-friendly alternative to traditional methods.

Antimicrobial and Antifungal Activities of Proline-Based 2,5-Diketopiperazines Occurring in Food and Beverages and Their Synergism with Lactic Acid

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Researchers synthesized special cyclic peptides called 2,5-diketopiperazines (found naturally in fermented foods like bread and cheese) and tested their ability to kill harmful molds and bacteria. When combined with lactic acid (a natural preservative), these compounds worked extremely well together, achieving nearly complete mold inhibition. This research suggests that using special starter cultures that naturally produce these compounds could help keep food fresh longer without artificial preservatives.

Overexpression of efflux pump and biofilm associated genes in itraconazole resistant Candida albicans isolates causing onychomycosis

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This study examined why some fungal nail infections caused by Candida albicans don’t respond to itraconazole treatment. Researchers found that resistant fungi have higher levels of genes that pump the antifungal drug out of their cells and genes that help them form protective biofilm layers. These findings suggest that combining itraconazole with drugs that block these pumps or disrupt biofilms could be more effective for treating stubborn fungal nail infections.

Graphene nanomaterials: A new frontier in preventing respiratory fungal infections

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Scientists are exploring nano-graphene oxide, a microscopic material made from graphene, as a new treatment for serious lung fungal infections. These tiny particles can kill fungal cells through multiple mechanisms and deliver antifungal drugs directly to infection sites while reducing harmful side effects. Researchers found that graphene oxide can be combined with existing antifungal medications to make them work better and even help overcome drug-resistant fungal infections.

In vitro characterization of Trichophyton rubrum biofilm by combined anti-biofilm enzymes

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Athlete’s foot and nail fungal infections caused by Trichophyton rubrum are difficult to treat because the fungus forms protective biofilms that resist antifungal medications. This research shows that enzymes like cellulase, protease, and amylase can break down these biofilm barriers when used alone or in combination. The combination approach was most effective, suggesting that enzyme-based treatments could become useful additions to current fungal infection therapies.

therapeutic action: biofilm inhibition