International audienceWe report the 3.3 Å resolution structure of dimeric membrane-bound O(2)-tolerant hydrogenase 1 from Escherichia coli in a 2:1 complex with its physiological partner, cytochrome b. From the short distance between distal [Fe(4)S(4)] clusters, we predict rapid transfer of H(2)-derived electrons between hydrogenase heterodimers. Thus, under low O(2) levels, a functional active site in one heterodimer can reductively reactivate its O(2)-exposed counterpart in the other. Hydrogenase 1 is maximally expressed during fermentation, when electron acceptors are scarce. These conditions are achieved in the lower part of the host's intestinal tract when E. coli is soon to be excreted and undergo an anaerobic-to-aerobic metabolic tra...
In Escherichia coli, hydrogen metabolism plays a prominent role in anaerobic physiology. The genome ...
‘Oxygen-tolerant’ [NiFe]-hydrogenases can catalyze H2 oxidation under aerobic conditions, avoiding o...
SummaryA novel group of bacterial [NiFe]-hydrogenases is responsible for high-affinity H2 uptake fro...
International audienceWe report the 3.3 Å resolution structure of dimeric membrane-bound O(2)-tolera...
We report the 3.3 Å resolution structure of dimeric membrane-bound O(2)-tolerant hydrogenase 1 from ...
SummaryWe report the 3.3 Å resolution structure of dimeric membrane-bound O2-tolerant hydrogenase 1 ...
We report the 3.3 Å resolution structure of dimeric membrane-bound O2-tolerant hydrogenase 1 from Es...
International audienceNature has evolved three different ways of metabolizing hydrogen, represented ...
Under anaerobic conditions Escherichia coli is able to metabolize molecular hydrogen via the action ...
Under anaerobic conditions, Escherichia coli is able to metabolize molecular hydrogen via the action...
Hydrogenase enzymes catalyse the reversible conversion of protons and electrons into molecular hydro...
International audienceThe crystal structure of the Escherichia coli O2-sensitive C19G [NiFe]-hydroge...
The crystal structure of the Escherichia coli O2-sensitive C19G [NiFe]-hydrogenase-1 variant shows t...
Hydrogenases are essential for H(2) cycling in microbial metabolism and serve as valuable blueprints...
The origin of the tolerance of a subclass of [NiFe]-hydrogenases to the presence of oxygen was uncle...
In Escherichia coli, hydrogen metabolism plays a prominent role in anaerobic physiology. The genome ...
‘Oxygen-tolerant’ [NiFe]-hydrogenases can catalyze H2 oxidation under aerobic conditions, avoiding o...
SummaryA novel group of bacterial [NiFe]-hydrogenases is responsible for high-affinity H2 uptake fro...
International audienceWe report the 3.3 Å resolution structure of dimeric membrane-bound O(2)-tolera...
We report the 3.3 Å resolution structure of dimeric membrane-bound O(2)-tolerant hydrogenase 1 from ...
SummaryWe report the 3.3 Å resolution structure of dimeric membrane-bound O2-tolerant hydrogenase 1 ...
We report the 3.3 Å resolution structure of dimeric membrane-bound O2-tolerant hydrogenase 1 from Es...
International audienceNature has evolved three different ways of metabolizing hydrogen, represented ...
Under anaerobic conditions Escherichia coli is able to metabolize molecular hydrogen via the action ...
Under anaerobic conditions, Escherichia coli is able to metabolize molecular hydrogen via the action...
Hydrogenase enzymes catalyse the reversible conversion of protons and electrons into molecular hydro...
International audienceThe crystal structure of the Escherichia coli O2-sensitive C19G [NiFe]-hydroge...
The crystal structure of the Escherichia coli O2-sensitive C19G [NiFe]-hydrogenase-1 variant shows t...
Hydrogenases are essential for H(2) cycling in microbial metabolism and serve as valuable blueprints...
The origin of the tolerance of a subclass of [NiFe]-hydrogenases to the presence of oxygen was uncle...
In Escherichia coli, hydrogen metabolism plays a prominent role in anaerobic physiology. The genome ...
‘Oxygen-tolerant’ [NiFe]-hydrogenases can catalyze H2 oxidation under aerobic conditions, avoiding o...
SummaryA novel group of bacterial [NiFe]-hydrogenases is responsible for high-affinity H2 uptake fro...