The bacterial [NiFe]-hydrogenases have been classified as either 'standard' or 'O-2-tolerant' based on their ability to function in the presence of O-2. Typically, these enzymes contain four redox-active metal centers: a Ni-Fe-CO-2CN(-) active site and three electron-transferring Fe-S clusters. Recent research suggests that, rather than differences at the catalytic active site, it is a novel Fe-S cluster electron transfer (ET) relay that controls how [NiFe]-hydrogenases recover from O-2 attack. In light of recent structural data and mutagenic studies this article reviews the molecular mechanism of O-2-tolerance in [NiFe]-hydrogenases and discusses the biosynthesis of the unique Fe-S relay.</p
The origin of the tolerance of a subclass of [NiFe]-hydrogenases to the presence of oxygen was uncle...
Hydrogenase enzymes catalyse the reversible conversion of protons and electrons into molecular hydro...
Hydrogenase enzymes catalyse the reversible conversion of protons and electrons into molecular hydro...
Hydrogenases are essential for H(2) cycling in microbial metabolism and serve as valuable blueprints...
Hydrogenases are essential for H(2) cycling in microbial metabolism and serve as valuable blueprints...
International audienceNature has evolved three different ways of metabolizing hydrogen, represented ...
International audienceNature has evolved three different ways of metabolizing hydrogen, represented ...
The [NiFe] hydrogenases use an electron transfer relay of three FeS clusters - proximal, medial and ...
"Hyd-1", produced by Escherichia coli , exemplifies a special class of [NiFe]-hydrogenase that can s...
"Hyd-1", produced by Escherichia coli , exemplifies a special class of [NiFe]-hydrogenase that can ...
"Hyd-1", produced by Escherichia coli , exemplifies a special class of [NiFe]-hydrogenase that can s...
"Hyd-1", produced by Escherichia coli , exemplifies a special class of [NiFe]-hydrogenase that can s...
"Hyd-1", produced by Escherichia coli , exemplifies a special class of [NiFe]-hydrogenase that can s...
International audience"Hyd-1", produced by Escherichia coli , exemplifies a special class of [NiFe]-...
The origin of the tolerance of a subclass of [NiFe]-hydrogenases to the presence of oxygen was uncle...
The origin of the tolerance of a subclass of [NiFe]-hydrogenases to the presence of oxygen was uncle...
Hydrogenase enzymes catalyse the reversible conversion of protons and electrons into molecular hydro...
Hydrogenase enzymes catalyse the reversible conversion of protons and electrons into molecular hydro...
Hydrogenases are essential for H(2) cycling in microbial metabolism and serve as valuable blueprints...
Hydrogenases are essential for H(2) cycling in microbial metabolism and serve as valuable blueprints...
International audienceNature has evolved three different ways of metabolizing hydrogen, represented ...
International audienceNature has evolved three different ways of metabolizing hydrogen, represented ...
The [NiFe] hydrogenases use an electron transfer relay of three FeS clusters - proximal, medial and ...
"Hyd-1", produced by Escherichia coli , exemplifies a special class of [NiFe]-hydrogenase that can s...
"Hyd-1", produced by Escherichia coli , exemplifies a special class of [NiFe]-hydrogenase that can ...
"Hyd-1", produced by Escherichia coli , exemplifies a special class of [NiFe]-hydrogenase that can s...
"Hyd-1", produced by Escherichia coli , exemplifies a special class of [NiFe]-hydrogenase that can s...
"Hyd-1", produced by Escherichia coli , exemplifies a special class of [NiFe]-hydrogenase that can s...
International audience"Hyd-1", produced by Escherichia coli , exemplifies a special class of [NiFe]-...
The origin of the tolerance of a subclass of [NiFe]-hydrogenases to the presence of oxygen was uncle...
The origin of the tolerance of a subclass of [NiFe]-hydrogenases to the presence of oxygen was uncle...
Hydrogenase enzymes catalyse the reversible conversion of protons and electrons into molecular hydro...
Hydrogenase enzymes catalyse the reversible conversion of protons and electrons into molecular hydro...