CRISPR gene editing revolutionizes soybean oil quality through precision targeting of FAD2 and FATB gene families using Golden Gate cloning techniques.
Discover how zirconia-silica hybrids doped with Cu²⁺ and laccase enzymes are revolutionizing textile wastewater treatment with 98% dye decolorization efficiency.
Exploring the potential of T. solium enolase as a diagnostic tool for neurocysticercosis, with 88.4% sensitivity and 83.7% specificity in recent studies.
Explore how bacteria communicate through N-acyl homoserine lactones (AHLs) and how immunochemical test systems are revolutionizing disease detection and treatment.
Exploring how peroxynitrite oxidatively inactivates glutaredoxin, disrupting cellular repair systems and contributing to disease pathology.
Exploring how urinary cotinine immunoassays reveal tobacco exposure and its health impacts through cutting-edge biomarker detection.
Explore how protein engineering helps scientists understand enzyme catalytic mechanisms through targeted mutations and biochemical analysis.
Discover how wild tomatoes evolved a flipped metabolic pathway to produce defensive acylsugars through enzyme promiscuity in trichomes.
Discover how malononitrile derivatives inhibit key enzymes in the Pentose Phosphate Pathway, offering a promising strategy against cancer metabolism.
Discover how noncanonical cannabinoid synthases from fungi, bacteria, and distant plants are revolutionizing cannabinoid science and enabling the production of novel therapeutic compounds.