Exploring Microbial Induced Calcium Carbonate Precipitation (MICP) as a sustainable alternative to traditional construction methods for soil improvement and infrastructure development.
Exploring how genome-reduced bacteria face structural stress and the predictive models used to understand their metabolic vulnerabilities.
Explore how proteomics reveals the inner workings of Clostridium thermocellum, a heat-loving bacterium that could revolutionize biofuel production.
Discover how engineered bacteria are creating sustainable bioplastics from unusual feedstocks, offering solutions to plastic pollution.
Discover how soil bacteria acquire new metabolic pathways for root exudates but struggle to colonize plant roots in the competitive rhizosphere environment.
Discover how genetic engineering tools are revolutionizing biotechnology using Novosphingobium aromaticivorans and Rhodobacter sphaeroides for sustainable biofuel and bioproduct production.
Discover how metabolic engineering transforms bacteria into microscopic factories producing medicines, fuels, and sustainable materials.
Discover how vaccine-enhanced competition uses immune mechanisms and metabolic niche competition to replace harmful gut bacteria with beneficial strains.
Exploring how bacterial small RNAs are transforming metabolic engineering with their precise gene regulation capabilities.
Exploring how omics-integrated genome-scale metabolic models are revolutionizing our understanding of bacterial metabolism and its applications.