Microorganisms spend their lives searching for chemical reactants that yield metabolically usable energy, one reactant providing electrons and the other accepting them in a redox reaction. In PNAS, Kjeldsen et al. (1) provide a comprehensive genomic and physiological analysis of bacteria that have evolved an ingenious solution to the persistent problem that suitable reactants often do not occur together: They electrify their sedimentary habitat as living wires and connect redox couples over centimeters, vast distances in the microbial world
Cable bacteria are long, multicellular, filamentous bacteria that can conduct electrons over centime...
Multicellularity is a key evolutionary innovation, leading to coordinated activity and resource shar...
Multicellularity is a key evolutionary innovation, leading to coordinated activity and resource shar...
In 2010, a completely novel type of microbial metabolism was discovered in marine sediments, which i...
Multicellularity is a key evolutionary innovation, leading to coordinated activity and resource shar...
In marine sediments cathodic oxygen reduction at the sediment surface can be coupled to anodic sulfi...
Cable bacteria form centimeter-long, multicellular filaments than can consist of ten thousands of ce...
Cable bacteria form centimeter-long, multicellular filaments than can consist of ten thousands of ce...
Recently, a novel electrogenic type of sulphur oxidation was documented in marine sediments, whereby...
The biodegradation of organic pollutants in aquifers is often restricted to the fringes of contamina...
Recently, a novel electrogenic type of sulphur oxidation was documented in marine sediments, whereby...
Multicellularity is a key evolutionary innovation, leading to coordinated activity and resource shar...
Cable bacteria are long, multicellular, filamentous bacteria that can conduct electrons over centime...
Multicellularity is a key evolutionary innovation, leading to coordinated activity and resource shar...
Multicellularity is a key evolutionary innovation, leading to coordinated activity and resource shar...
Cable bacteria are long, multicellular, filamentous bacteria that can conduct electrons over centime...
Multicellularity is a key evolutionary innovation, leading to coordinated activity and resource shar...
Multicellularity is a key evolutionary innovation, leading to coordinated activity and resource shar...
In 2010, a completely novel type of microbial metabolism was discovered in marine sediments, which i...
Multicellularity is a key evolutionary innovation, leading to coordinated activity and resource shar...
In marine sediments cathodic oxygen reduction at the sediment surface can be coupled to anodic sulfi...
Cable bacteria form centimeter-long, multicellular filaments than can consist of ten thousands of ce...
Cable bacteria form centimeter-long, multicellular filaments than can consist of ten thousands of ce...
Recently, a novel electrogenic type of sulphur oxidation was documented in marine sediments, whereby...
The biodegradation of organic pollutants in aquifers is often restricted to the fringes of contamina...
Recently, a novel electrogenic type of sulphur oxidation was documented in marine sediments, whereby...
Multicellularity is a key evolutionary innovation, leading to coordinated activity and resource shar...
Cable bacteria are long, multicellular, filamentous bacteria that can conduct electrons over centime...
Multicellularity is a key evolutionary innovation, leading to coordinated activity and resource shar...
Multicellularity is a key evolutionary innovation, leading to coordinated activity and resource shar...
Cable bacteria are long, multicellular, filamentous bacteria that can conduct electrons over centime...
Multicellularity is a key evolutionary innovation, leading to coordinated activity and resource shar...
Multicellularity is a key evolutionary innovation, leading to coordinated activity and resource shar...