The biochemical properties of the metal ions in a series of nickel enzymes are briefly reviewed. In particular, the properties of urease, hydrogenase, acetyl-CoA synthase/carbon monoxide dehydrogenase, methyl coenzyme-M reductase, superoxide dismutase, and acireductone dioxygenase are discussed in terms of relationships between the structure of the Ni ions in the active site and the molecular mechanism of catalysis
The article defines the development of our present understanding of the urease molecule. It describe...
In this paper we report the results of our studies on Ni complexes, the chemistry of which is releva...
Following the discovery of the first specific and essential role of nickel in biology in 1975 (the d...
International audienceNickel enzymes, present in archaea, bacteria, plants and primitive eukaryotes ...
The importance of nickel enzymes, where nickel serves as an essential cofactor, in Archaea, bacteria...
Since 1995, crystal structures have been determined for many transition-metal enzymes, in particular...
This work provides a comprehensive critical summary of urease spectroscopy, crystallography, inhibit...
The discovery of nickel atoms in the composition of numerous enzymes, such as urease and Ni–CO dehy-...
Transition metals are both essential to enzymatic catalysis and limited in environmental availabilit...
This review is an attempt to retrace the chronicle that starts from the discovery of the role of nic...
none1noUrease is the enzyme that catalyzes the hydrolysis of urea as the last step of organic nitrog...
Urease was the first enzyme to be crystallized and shown to be a protein. Some 50 years after its cr...
The roles that nickel plays in biological systems appear to be largely dependent on the ligand envir...
Nickel, essential to many biological processes, is a component of the active sites of enzymes that c...
Nickel enzymes allow microorganisms to access chemistry that can be vital for survival and virulence...
The article defines the development of our present understanding of the urease molecule. It describe...
In this paper we report the results of our studies on Ni complexes, the chemistry of which is releva...
Following the discovery of the first specific and essential role of nickel in biology in 1975 (the d...
International audienceNickel enzymes, present in archaea, bacteria, plants and primitive eukaryotes ...
The importance of nickel enzymes, where nickel serves as an essential cofactor, in Archaea, bacteria...
Since 1995, crystal structures have been determined for many transition-metal enzymes, in particular...
This work provides a comprehensive critical summary of urease spectroscopy, crystallography, inhibit...
The discovery of nickel atoms in the composition of numerous enzymes, such as urease and Ni–CO dehy-...
Transition metals are both essential to enzymatic catalysis and limited in environmental availabilit...
This review is an attempt to retrace the chronicle that starts from the discovery of the role of nic...
none1noUrease is the enzyme that catalyzes the hydrolysis of urea as the last step of organic nitrog...
Urease was the first enzyme to be crystallized and shown to be a protein. Some 50 years after its cr...
The roles that nickel plays in biological systems appear to be largely dependent on the ligand envir...
Nickel, essential to many biological processes, is a component of the active sites of enzymes that c...
Nickel enzymes allow microorganisms to access chemistry that can be vital for survival and virulence...
The article defines the development of our present understanding of the urease molecule. It describe...
In this paper we report the results of our studies on Ni complexes, the chemistry of which is releva...
Following the discovery of the first specific and essential role of nickel in biology in 1975 (the d...
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