This article provides a comprehensive overview of systems metabolic engineering, an interdisciplinary field that integrates systems biology, synthetic biology, and evolutionary engineering to optimize metabolic networks in cells.
Discover how scientists are engineering Rhodotorula toruloides to efficiently convert xylose into valuable bioproducts, advancing sustainable biomanufacturing.
Discover how scientists are using metabolomics and gene-editing technologies to engineer yeasts into efficient carotenoid production factories.
Explore how SBOL 3.0 is transforming synthetic biology with standardized biological design language, visual notation, and real-world applications.
Explore how GDEE platform bridges natural genetic diversity with practical enzyme applications through structure-based engineering and computational design.
Discover how scientists developed a biparental methylation-conjugation system to enable plasmid-based expression in the previously genetically intractable Clostridium kluyveri, opening new frontiers in sustainable manufacturing.
Explore how water molecules actively participate in cellular mechanosensing and shape our understanding of touch, hearing, and biological force detection.
Discover how decompartmentalization of yeast mitochondrial metabolism is overcoming cellular barriers to enable high-yield production of green chemicals like succinic acid.
Discover how microscopic algae are revolutionizing health, nutrition and medicine with their powerful bioactive compounds and sustainable benefits.
Explore how CRISPR-Cas genome editing is revolutionizing microalgae biotechnology for sustainable solutions in biofuel, nutrition, and carbon sequestration.