Research Keyword: cyanobacteria

Bioremediation Potential of a Non-Axenic Cyanobacterium Synechococcus sp. for Municipal Wastewater Treatment in the Peruvian Amazon: Growth Kinetics, Ammonium Removal, and Biochemical Characterization Within a Circular Bioeconomy Framework

Researchers discovered that a cyanobacterium called Synechococcus sp., when grown in diluted municipal wastewater, can effectively clean polluted water by removing 95% of ammonia while simultaneously producing valuable biomass. This dual-purpose approach offers a sustainable solution for wastewater treatment in the Peruvian Amazon, where conventional treatment infrastructure is limited but sunlight and warm temperatures are abundant. The organism produces useful compounds like phycocyanin, which has applications in food coloring, cosmetics, and pharmaceuticals, turning a pollution problem into a resource opportunity.

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Insights on Anabaena sp. PCC 7120 Responses to HCH Isomers: Tolerance, Degradation, and Dynamics on Potential lin Genes Expression

This research examined how a type of cyanobacteria called Anabaena can help clean up contaminated areas by breaking down different forms of a harmful pesticide called HCH. The scientists found that Anabaena handles some forms of HCH better than others, completely eliminating certain types while only partially breaking down others. This discovery suggests that Anabaena could potentially be used in environmental cleanup projects to remove HCH pollution from water and soil.

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Algae and Cyanobacteria Fatty Acids and Bioactive Metabolites: Natural Antifungal Alternative Against Fusarium sp

This review examines how fatty acids and other compounds from algae and cyanobacteria can naturally fight Fusarium fungus, which damages crops like wheat, corn, and tomatoes. Traditional chemical fungicides harm the environment and can make fungi resistant, so scientists are exploring algae-based alternatives that work sustainably. The research shows these algal compounds can damage fungal cell membranes and boost plant defenses against infection. While promising, more work is needed to develop these natural solutions for practical farm use.

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Cyanobacteria and Chloroflexota cooperate to structure light-responsive biofilms

Researchers studied how two types of bacteria found in hot spring mats work together to form stronger communities. When cultured alone, one bacterium moved toward light while the other moved randomly and one was better at forming sticky biofilms. When combined, the bacteria moved together toward light more effectively and created much stronger biofilms, suggesting they cooperate to build the layered structures seen in natural hot spring ecosystems.

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