Explore how metabolic engineering transforms microbes into efficient factories for producing valuable sugars, from pharmaceuticals to sustainable materials.
Discover how DNA assembler technology revolutionized synthetic biology by enabling rapid construction of complex biochemical pathways with near-perfect efficiency.
Discover how a universal actuator enables efficient gene silencing in E. coli through convergent transcription resistant to Rho-dependent termination.
Explore the science of genomic instability and how researchers are designing more stable synthetic DNA systems through rational design principles.
Discover how Regulatory Minimal Cut Sets (cRegMCSs) are transforming metabolic engineering by enabling precise control of metabolic fluxes for creating efficient microbial cell factories.
Exploring how synthetic biology links FeFe-hydrogenase activity to E. coli sulfur metabolism for sustainable energy solutions
Explore how scientists are redesigning protein-based machines to emulate and reprogram cellular metabolism for sustainable biotechnology applications.
Discover how metabolic flux engineering transforms tobacco plants into sustainable biochemical factories producing cembratrien-ol for pest resistance and green chemistry.
Discover how scientists are engineering carbon-neutral hydrogen fuel from plant waste using synthetic biology and in vitro metabolic engineering.
Explore how bacterial transposons - nature's genetic engineers - are revolutionizing synthetic biology and strain improvement for industrial applications.