AbstractMany proteins synthesized in the cytoplasm ultimately function in non-cytoplasmic locations. In Escherichia coli, the general secretory (Sec) pathway transports the vast majority of these proteins. Two fundamental components of the Sec transport pathway are the SecYEG heterotrimeric complex that forms the channel through the cytoplasmic membrane, and SecA, the ATPase that drives the preprotein to and across the membrane. This review focuses on what is known about the oligomeric states of these core Sec components and how the oligomeric state might change during the course of the translocation of a preprotein
In bacteria, more than one-third of the proteins synthesized in the cell accomplish their function o...
In bacteria, the SecA ATPase provides the driving force for protein secretion via the SecYEG translo...
In bacteria, the SecA ATPase provides the driving force for protein secretion via the SecYEG translo...
AbstractMany proteins synthesized in the cytoplasm ultimately function in non-cytoplasmic locations....
SummaryMany proteins are translocated across the bacterial plasma membrane by the interplay of the c...
Protein secretion in bacteria is driven through the ubiquitous SecYEG complex by the ATPase SecA. Th...
More than 30% of proteins synthesized in the cytoplasm of cells, must be transported into or across ...
More than 30% of proteins synthesized in the cytoplasm of cells, must be transported into or across ...
In bacteria, more than one-third of the proteins synthesized in the cell accomplish their function o...
SummaryMany proteins are translocated across the bacterial plasma membrane by the interplay of the c...
The conserved general secretion (Sec) pathway carries out most protein export in bacteria and is pow...
The conserved general secretion (Sec) pathway carries out most protein export in bacteria and is pow...
In bacteria, the SecA ATPase provides the driving force for protein secretion via the SecYEG translo...
In bacteria, more than one-third of the proteins synthesized in the cell accomplish their function o...
In bacteria, the SecA ATPase provides the driving force for protein secretion via the SecYEG translo...
In bacteria, more than one-third of the proteins synthesized in the cell accomplish their function o...
In bacteria, the SecA ATPase provides the driving force for protein secretion via the SecYEG translo...
In bacteria, the SecA ATPase provides the driving force for protein secretion via the SecYEG translo...
AbstractMany proteins synthesized in the cytoplasm ultimately function in non-cytoplasmic locations....
SummaryMany proteins are translocated across the bacterial plasma membrane by the interplay of the c...
Protein secretion in bacteria is driven through the ubiquitous SecYEG complex by the ATPase SecA. Th...
More than 30% of proteins synthesized in the cytoplasm of cells, must be transported into or across ...
More than 30% of proteins synthesized in the cytoplasm of cells, must be transported into or across ...
In bacteria, more than one-third of the proteins synthesized in the cell accomplish their function o...
SummaryMany proteins are translocated across the bacterial plasma membrane by the interplay of the c...
The conserved general secretion (Sec) pathway carries out most protein export in bacteria and is pow...
The conserved general secretion (Sec) pathway carries out most protein export in bacteria and is pow...
In bacteria, the SecA ATPase provides the driving force for protein secretion via the SecYEG translo...
In bacteria, more than one-third of the proteins synthesized in the cell accomplish their function o...
In bacteria, the SecA ATPase provides the driving force for protein secretion via the SecYEG translo...
In bacteria, more than one-third of the proteins synthesized in the cell accomplish their function o...
In bacteria, the SecA ATPase provides the driving force for protein secretion via the SecYEG translo...
In bacteria, the SecA ATPase provides the driving force for protein secretion via the SecYEG translo...