SecA is the ATPase that provides energy for translocation of precursor polypeptides through the SecYEG translocon in Escherichia coli during protein export. We have previously shown that when SecA receives the precursor from SecB the ternary complex is fully active only when two protomers of SecA are bound. Here we have used variants of SecA and of SecB that populate complexes containing two protomers of SecA to different degrees to examine both the hydrolysis of ATP and the translocation of polypeptides. We conclude that the low activity of the complexes with only one protomer is the result of a low efficiency of coupling between ATP hydrolysis and translocation
The universally conserved Sec system is the primary method cells utilise totransport proteins across...
Translocase mediates the transport of preproteins across the inner membrane of Escherichia coli. Sec...
Protein secretion in bacteria is driven through the ubiquitous SecYEG complex by the ATPase SecA. Th...
SecYEG translocase mediates the transport of preproteins across the inner membrane of Escherichia co...
In Escherichia coli, secretory proteins (preproteins) are translocated across the cytoplasmic membra...
In Escherichia coli, secretory proteins (preproteins) are translocated across the cytoplasmic membra...
SecYEG translocase mediates the transport of preproteins across the inner membrane of Escherichia co...
In Escherichia coli, secretory proteins (preproteins) are translocated across the cytoplasmic membra...
In Escherichia coli, secretory proteins (preproteins) are translocated across the cytoplasmic membra...
The Sec translocon is a highly conserved membrane assembly for polypeptide transport across, or into...
The evolutionarily well-conserved SecA is essential for bacterial post-translational translocation. ...
SummaryIn bacteria, most secretory proteins are translocated across the plasma membrane by the inter...
Protein translocation across cell membranes is a ubiquitous process required for protein secretion a...
AbstractThe ATPase SecA is involved in post-translational protein translocation through the SecY cha...
The ATPase SecA provides the driving force for the transport of secretory proteins across the cytopl...
The universally conserved Sec system is the primary method cells utilise totransport proteins across...
Translocase mediates the transport of preproteins across the inner membrane of Escherichia coli. Sec...
Protein secretion in bacteria is driven through the ubiquitous SecYEG complex by the ATPase SecA. Th...
SecYEG translocase mediates the transport of preproteins across the inner membrane of Escherichia co...
In Escherichia coli, secretory proteins (preproteins) are translocated across the cytoplasmic membra...
In Escherichia coli, secretory proteins (preproteins) are translocated across the cytoplasmic membra...
SecYEG translocase mediates the transport of preproteins across the inner membrane of Escherichia co...
In Escherichia coli, secretory proteins (preproteins) are translocated across the cytoplasmic membra...
In Escherichia coli, secretory proteins (preproteins) are translocated across the cytoplasmic membra...
The Sec translocon is a highly conserved membrane assembly for polypeptide transport across, or into...
The evolutionarily well-conserved SecA is essential for bacterial post-translational translocation. ...
SummaryIn bacteria, most secretory proteins are translocated across the plasma membrane by the inter...
Protein translocation across cell membranes is a ubiquitous process required for protein secretion a...
AbstractThe ATPase SecA is involved in post-translational protein translocation through the SecY cha...
The ATPase SecA provides the driving force for the transport of secretory proteins across the cytopl...
The universally conserved Sec system is the primary method cells utilise totransport proteins across...
Translocase mediates the transport of preproteins across the inner membrane of Escherichia coli. Sec...
Protein secretion in bacteria is driven through the ubiquitous SecYEG complex by the ATPase SecA. Th...