Metal catalyst hydrogenates saccharide solutions converting carbonyl compounds into saturated forms.
Isolated mucins mediate microbial interactions to reduce pathogenicity and maintain stability without disrupting natural diversity.
Mechanical separation isolates high-protein yeast from fermentation by-products for animal feed applications.
Edible mushroom fungi convert per- and polyfluoroalkyl substances into less toxic compounds through bioconversion.
NPS promoter triggers recombinant protein synthesis when culture phosphate levels drop, eliminating methanol induction hazards and ensuring stable cell growth.
A mutant Trichoderma microorganism produces cellulase with disrupted beta-glucosidase genes to generate cello-oligosaccharides.
Arabidopsis thaliana pentose transporter enables yeast cells to absorb L-arabinose.
Microorganisms degrade explosive ordnance inside magazines, resolving the trade-off between disposal rate and environmental pollution.
Disrupting native glycerol genes and introducing NADH oxidase eliminates by-products while maintaining cell growth rates for efficient fermentation.
Engineered yeast strains combine chaperone expression and protease disruption to produce complex proteins safely without hazardous methanol induction.
Overexpressed enzymes balance NADPH levels and drive flux toward oxaloacetate, resolving biosynthetic complexity to boost amino acid yields.
Fluorescent labeling agents bind to mold fragments in a stimulated growth medium, reducing detection time from days to under 24 hours.
Microbial fermentation replaces chemical synthesis to yield stereochemically pure sphingosine without racemic mixtures.
Adjusting liquid medium pH to 7.5–11 eliminates complex acid-hydrolysis steps while doubling yeast extract glutamic acid concentration.