Research Keyword: microbial ecology

Exploring functional microbiota for uranium sequestration in Zoige uranium mine soil

Researchers studied bacteria in uranium-contaminated soil from a mine in China to find microorganisms that could help clean up the pollution. They discovered that three types of bacteria—Actinobacteria, Firmicutes, and Cyanobacteria—are particularly good at binding uranium and could be used for natural soil remediation. These bacteria survive in the contaminated environment by producing amino acids and fatty acids that help them deal with uranium stress.

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Comprehensive whole metagenomics analysis uncovers microbial community and resistome variability across anthropogenically contaminated soils in urban and suburban areas of Tamil Nadu, India

Researchers analyzed soil samples from eight polluted locations in India to understand how microbes adapt to heavy metal and chemical contamination. They discovered that contaminated soils harbor many bacteria with antibiotic resistance genes and genes that help them survive toxic metals. The most common resistance mechanism was through special pumps that bacteria use to expel antibiotics. This research highlights how polluted environments become reservoirs of antibiotic-resistant bacteria, emphasizing the need for targeted cleanup strategies to protect human and environmental health.

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Bacterial community shifts in Fusarium-induced avocado root rot and the antagonistic potential of Bacillus siamensis NB92

Avocado plants are threatened by a fungal disease called root rot that damages roots and reduces fruit production. Researchers discovered that when avocado roots become diseased, the beneficial bacteria in the soil around the roots decrease significantly. They isolated a beneficial bacterium called Bacillus siamensis NB92 from healthy avocado soil that can fight against the disease-causing fungus by producing special compounds. When applied to diseased soil, this bacterium reduced the fungal pathogen and protected avocado stems from damage, offering a natural alternative to chemical treatments.

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Eastern European Fermented Foods: Nutritional Value, Functional Potential, and Cultural Heritage

Eastern European fermented foods like sauerkraut, kefir, and kvass have been part of traditional diets for centuries and contain special compounds created during fermentation that may support heart health, digestion, and immunity. These foods provide beneficial bacteria and other active molecules that research suggests could help reduce inflammation and improve metabolic health, though more human studies are needed to fully understand their effects.

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The Effect of Pseudomonas putida on the Microbial Community in Casing Soil for the Cultivation of Morchella sextelata

Morel mushrooms are prized edible fungi, but growing them repeatedly in the same soil causes problems because toxic ethylene gas builds up and the soil microbiome becomes unbalanced. Scientists found that a beneficial soil bacterium called Pseudomonas putida can break down the ethylene precursor and improve the soil microbial community, making morels grow better and faster. This natural approach using microbial inoculation offers a practical solution to help farmers overcome these continuous cropping challenges.

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Echoes of 1816: microbial footprints in heritage artifacts from Argentina’s museum of independence

Scientists studied bacteria living on historic artifacts at Argentina’s Independence Museum to understand how microbes damage precious heritage items. They found 49 different bacterial species on artifacts like 200-year-old photographs, wooden furniture, and textiles, discovering that each artifact hosts a unique microbial community. The study shows that understanding these bacteria is crucial for preserving cultural treasures and protecting museum workers from potential health risks caused by microbial exposure during artifact handling and conservation.

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Synbiotic microencapsulation of Lactiplantibacillus plantarum-lentinan for enhanced growth in broilers

Researchers developed a special protective coating for beneficial bacteria called L. plantarum mixed with lentinan from mushrooms. This mixture helps chickens grow better and stay healthier by improving their digestion and fighting harmful bacteria. When the coated bacteria reach the chicken’s intestines, they release their beneficial properties, improving growth rate and immune function without using antibiotics.

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Enhancement of Activated Carbon on Anaerobic Fermentation of Heavy-Metal-Contaminated Plants: Insights into Microbial Responses

This research shows that when plants contaminated with heavy metals are processed for energy production through anaerobic fermentation, adding activated carbon dramatically improves the efficiency of biogas generation. The activated carbon acts like a filter to reduce the toxic effects of heavy metals while providing surfaces for beneficial microorganisms to grow and work more effectively. The study reveals how specific bacteria and microbes adapt to these conditions, making the overall process more productive and potentially opening new possibilities for recycling contaminated plant waste into useful energy.

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Microbial communities in petroleum refinery effluents and their complex functions

Oil refineries produce large amounts of wastewater containing harmful petroleum products and heavy metals. Instead of using toxic chemical treatments, scientists are discovering that microorganisms naturally found in this wastewater—including bacteria, fungi, algae, and yeast—can break down these pollutants safely and effectively. These microbes can degrade oil hydrocarbons, remove heavy metals, and produce natural surfactants that help in the cleanup process, offering an environmentally friendly and cost-effective solution to refinery pollution.

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Bacterial–Fungal Interactions: Mutualism, Antagonism, and Competition

Bacteria and fungi in animal bodies interact in three main ways: they help each other (mutualism), fight each other (antagonism), or compete for resources. These interactions happen in the gut, rumen, and skin of animals. Understanding how to balance these relationships can help create better probiotics and natural alternatives to antibiotics for treating infections and improving animal health.

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