Research Topic: response surface methodology

Optimization of the Decolorization of the Reactive Black 5 by a Laccase-like Active Cell-Free Supernatant from Coriolopsis gallica

Textile factories produce large amounts of colored wastewater containing harmful dyes like Reactive Black 5. Researchers optimized an enzyme-based treatment using laccase from a fungus called Coriolopsis gallica to remove these dyes from water. By carefully balancing enzyme concentration, pH, temperature, and a chemical booster called HBT, they achieved 82% dye removal in just 2 hours, offering a cleaner and more environmentally friendly alternative to traditional chemical treatments.

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Optimization and antifungal efficacy against brown rot fungi of combined Salvia rosmarinus and Cedrus atlantica essential oils encapsulated in Gum Arabic

Researchers have developed a natural product that protects wood from fungal decay by combining oils from rosemary and cedar trees and encapsulating them in Gum Arabic using specialized techniques. This nanoencapsulation process creates tiny protective particles that are much more stable and effective than the oils alone. When tested against wood-damaging fungi, this product showed remarkable antifungal power comparable to commercial fungicides. This innovation offers a safe, environmentally-friendly alternative to synthetic wood preservatives for building and construction applications.

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Chitosan extraction from Amanita phalloides: yield, crystallinity, degree of deacetylation, azo dye removal and antibacterial properties

Scientists successfully extracted chitosan, a useful natural polymer, from the death cap mushroom (Amanita phalloides). This chitosan showed excellent ability to remove blue dye from water and killed harmful bacteria effectively. The extraction method was efficient and eco-friendly, making it a promising solution for cleaning polluted water and developing antibacterial products.

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Ultrasound-assisted extraction and antioxidant activity of polysaccharides from Tenebrio molitor

Researchers successfully extracted beneficial compounds called polysaccharides from mealworms (Tenebrio molitor) using ultrasound waves, making the process faster and more efficient than traditional methods. These extracted polysaccharides demonstrated strong antioxidant properties, meaning they can help neutralize harmful free radicals in the body. The study shows that mealworm polysaccharides could be used as natural health supplements or food additives with health benefits comparable to or better than Vitamin C.

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Soy Sauce Fermentation with Cordyceps militaris: Process Optimization and Functional Profiling

Researchers created a new type of soy sauce using Cordyceps militaris fungus, which contains health-promoting compounds. Using scientific optimization techniques, they found the best conditions for fermentation, resulting in a soy sauce with much higher levels of cordycepin and other beneficial compounds compared to traditional soy sauce. This product offers both the familiar taste of soy sauce and added health benefits, potentially serving as a functional food that people can use daily.

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The application of laccase-rich extract of spent mushroom substrates for removing lignin from jute fabric waste: a dual management approach

This research shows how leftover mushroom growing material (SMS) can be recycled into a useful enzyme called laccase to make jute fabric softer and lighter by removing tough lignin components. Instead of using harsh chemicals, the scientists used mild conditions and natural enzymes to process jute waste sustainably. From just one bag of mushroom waste, they could treat an area of fabric equivalent to 2000 square meters, making this an economically attractive solution for both mushroom and textile waste management.

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Enhancement of Mycelial Growth and Antifungal Activity by Combining Fermentation Optimization and Genetic Engineering in Streptomyces pratensis S10

Scientists improved a soil bacterium called Streptomyces pratensis S10 that fights a serious wheat disease called Fusarium head blight. They used two strategies: first, they optimized the growth medium using statistical methods to produce more bacteria with stronger antifungal powers, and second, they used genetic engineering to remove a gene that was limiting its disease-fighting ability. The result was a bacteria strain that is much more effective at controlling this crop disease.

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Optimization of triterpenoids biosynthesis in Athelia termitophila as a source of natural products

Researchers optimized growing conditions for a parasitic termite fungus called Athelia termitophila to produce more triterpenoids, which are medicinal compounds with health benefits. By systematically testing different nutrients and fermentation parameters, they increased triterpenoid production by 1.9 times and fungal biomass by 1.66 times. This breakthrough makes it more practical and cost-effective to produce these natural compounds for use in pharmaceuticals and functional foods.

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Physicochemical, microbiological, and microstructural changes in germinated wheat grain

When wheat grains are exposed to moisture and warm conditions, they begin to sprout, which damages their quality and usefulness. This research studied how different moisture, temperature, and time conditions affect sprouted wheat grain. Scientists found that sprouting significantly changes the grain’s structure, reducing its starch content and increasing microbial contamination. The findings suggest that sprouted wheat can be processed into useful products if grown under carefully controlled conditions.

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Modelling the Combined Effects of Oxalic Acid, Water Activity, and pH on the Growth and Mycotoxin Production of Aspergillus spp. in a Dried Fig System

Dried figs can become contaminated with harmful fungi that produce dangerous toxins during the drying process. Researchers used mathematical modeling to understand how water content, acidity, and oxalic acid treatment affect fungal growth and toxin production in figs. They found that reducing water content is the most effective way to prevent dangerous toxin buildup. These models help the fig industry identify and avoid conditions that promote contamination, ultimately making dried figs safer for consumers.

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