The thiol group of the amino acid cysteine can be modified to regulate protein activity. The Escherichia coli periplasm is an oxidizing environment in which most cysteine residues are involved in disulfide bonds. However, many periplasmic proteins contain single cysteine residues, which are vulnerable to oxidation to sulfenic acids and then irreversibly modified to sulfinic and sulfonic acids. We discovered that DsbG and DsbC, two thioredoxin-related proteins, control the global sulfenic acid content of the periplasm and protect single cysteine residues from oxidation. DsbG interacts with the YbiS protein and, along with DsbC, regulates oxidation of its catalytic cysteine residue. Thus, a potentially widespread mechanism controls sulfenic a...
In Escherichia coli, the Dsb family of thiol-disulfide oxidoreductases catalyzes disulfide bond form...
AbstractThe cytoplasmic membrane protein DsbD transfers electrons from the cytoplasm to the periplas...
SummaryOxidation of cysteine pairs to disulfide requires cellular factors present in the bacterial p...
The Escherichia coli periplasm contains several proteins from the thioredoxin family. DsbA and Dsbc ...
The Escherichia coli periplasmic protein DsbC is active both in vivo and in vitro as a protein disul...
The formation of a disulfide bond results from the oxidation of two cysteine thiol groups, with the ...
We report a new function for Escherichia coli DsbC, a protein best known for disulfide bond isomeriz...
Disulfide bond formation is part of the folding pathway for many periplasmic and outer membrane prot...
AbstractGenetic studies have recently identified DsbG, a new member of the dsb group of redox protei...
AbstractDsbA is a periplasmic, disulfide bond formation factor of E. coli. We studied in vivo redox ...
Disulfide bonds are an important post-translational modification that provides stability for many pr...
The biological kingdoms have evolved elaborate systems that ensure the catalysis of protein disulfid...
The discovery of the oxidoreductase disulfide bond protein A (DsbA) in 1991 opened the way to the un...
SummaryOxidation of cysteine pairs to disulfide requires cellular factors present in the bacterial p...
In Escherichia coli, the Dsb family of thiol-disulfide oxidoreductases catalyzes disulfide bond form...
In Escherichia coli, the Dsb family of thiol-disulfide oxidoreductases catalyzes disulfide bond form...
AbstractThe cytoplasmic membrane protein DsbD transfers electrons from the cytoplasm to the periplas...
SummaryOxidation of cysteine pairs to disulfide requires cellular factors present in the bacterial p...
The Escherichia coli periplasm contains several proteins from the thioredoxin family. DsbA and Dsbc ...
The Escherichia coli periplasmic protein DsbC is active both in vivo and in vitro as a protein disul...
The formation of a disulfide bond results from the oxidation of two cysteine thiol groups, with the ...
We report a new function for Escherichia coli DsbC, a protein best known for disulfide bond isomeriz...
Disulfide bond formation is part of the folding pathway for many periplasmic and outer membrane prot...
AbstractGenetic studies have recently identified DsbG, a new member of the dsb group of redox protei...
AbstractDsbA is a periplasmic, disulfide bond formation factor of E. coli. We studied in vivo redox ...
Disulfide bonds are an important post-translational modification that provides stability for many pr...
The biological kingdoms have evolved elaborate systems that ensure the catalysis of protein disulfid...
The discovery of the oxidoreductase disulfide bond protein A (DsbA) in 1991 opened the way to the un...
SummaryOxidation of cysteine pairs to disulfide requires cellular factors present in the bacterial p...
In Escherichia coli, the Dsb family of thiol-disulfide oxidoreductases catalyzes disulfide bond form...
In Escherichia coli, the Dsb family of thiol-disulfide oxidoreductases catalyzes disulfide bond form...
AbstractThe cytoplasmic membrane protein DsbD transfers electrons from the cytoplasm to the periplas...
SummaryOxidation of cysteine pairs to disulfide requires cellular factors present in the bacterial p...