Discover how engineered E. coli bacteria produce chocolate aromas through directed evolution and metabolic engineering, creating sustainable 4-hydroxymandelate (4-HMA).
Discover how laboratory conditions transform mesenchymal stromal cells (MSCs) into regenerative powerhouses through metabolic engineering.
Discover how Phialemonium curvatum transforms palm oil into valuable biochemicals through comparative metabolomics research.
Discover how scientists are engineering E. coli to produce sustainable isoprenoid-based C5 alcohols for biofuels and green chemicals through advanced metabolic engineering.
Discover how Paenibacillus alvei's exopolysaccharide is revolutionizing nanomedicine with biocompatible nanofibers for medical applications.
Exploring how synthetic biology is reshaping medicine, agriculture, and industry today with breakthroughs in gene editing, biomanufacturing, and AI-driven design.
Discover how a novel thermostable CRISPR system revealed an unprecedented arsenic-detoxifying enzyme in extremophile bacteria, opening new possibilities for bioremediation and industrial applications.
Exploring the complex metabolic networks plants use to produce terpenes, nature's largest class of chemicals with over 80,000 variants.
Exploring how computational modeling is revolutionizing our understanding of microbial biofilms and their applications in biotechnology.
Discover how trifluoroethylamine (TFE) is revolutionizing peptide therapeutics by replacing fragile peptide bonds with durable molecular armor.