Exploring how spatial organization affects auxotrophic interactions between soil microbes and the implications for agriculture, climate change, and understanding life itself.
Explore how mineralized porous hydrogels are transforming bone regeneration through advanced biomaterials that mimic natural bone structure and promote healing.
Explore how modular metabolic engineering transforms Serratia marcescens into efficient factories for N-acetylneuraminic acid production from chitin waste
Explore how E. coli has been engineered to produce polysialic acid, a crucial sugar polymer with applications in brain development and medicine.
Explore how Genome-Scale Metabolic Models are transforming yeast into sophisticated, programmable cell factories for biotechnology applications.
Discover how scientists are using spatiotemporal regulation in baker's yeast to revolutionize astaxanthin production, the king of antioxidants.
Explore how MetNet's computational approach is transforming our understanding of metabolic networks through automated reconstruction and comparison across organisms.
Discover how scientists engineered a PhrC-RapC-SinR quorum sensing molecular switch to dynamically fine-tune menaquinone-7 synthesis in Bacillus subtilis.
Discover how scientists are engineering plants to produce DHA-rich oils through metabolic engineering and selective enzymes like LPAAT.
Explore how microalgae can solve energy and environmental challenges through enhanced lipid accumulation for sustainable biofuel production.