Microbial cooperation at the micron scale impacts biodegradation
MIT researchers demonstrate how often-ignored microbial interactions have a significant impact on the biodegradation of complex materials.
MIT researchers demonstrate how often-ignored microbial interactions have a significant impact on the biodegradation of complex materials.
MIT and University of Colorado researchers are collaborating on an experiment to be sent to the International Space Station.
Engineered signaling pathways could offer a new way to build synthetic biology circuits.
Specialized sugar molecules called glycans can disarm opportunistic pathogens and prevent infection.
By tweaking bacteriophage genomes, MIT team creates a new weapon to combat infection.
Researchers identify nearly 8,000 strains of bacteria, while also clarifying their genetic and metabolic context.
New method identifies ecologically and medically relevant bacteria groups.
Researchers identify a strategy to prevent mobile genetic elements from breaching the bacterial cell wall.
Professor Otto Cordero and colleagues ask: Can microbiome engineering make the Galapagos marine iguana more resilient to climate change?
Study finds that competition between bacterial species can be upended when conditions deteriorate.
Machine learning reveals metabolic pathways disrupted by the drugs, offering new targets to combat resistance.
Associate Professor Otto Cordero and colleagues discover simple assembly rules for marine microbiomes.
Drawn to MIT by its “amazing women who were doing science,” Professor Laura Kiessling explores sugar-protein interactions that influence cell behavior.
Results show bacterial genomes provide “shadow history” of animal evolution.
Climate-driven changes in phytoplankton communities will intensify the blue and green regions of the world’s oceans.