Integral membrane proteins in bacteria are co-translationally targeted to the SecYEG translocon for membrane insertion via the signal recognition particle (SRP) pathway. The SRP receptor FtsY and its N-terminal A domain, which is lacking in any structural model of FtsY, were studied using NMR and fluorescence spectroscopy. The A domain is mainly disordered and highly flexible; it binds to lipids via its N terminus and the C-terminal membrane targeting sequence. The central A domain binds to the translocon non-specifically and maintains disorder. Translocon targeting and binding of the A domain is driven by electrostatic interactions. The intrinsically disordered A domain tethers FtsY to the translocon, and because of its flexibility, allows...
Abstract Background The signal recognition particle (SRP) receptor plays a vital role in co-translat...
The universally conserved signal recognition particle (SRP) system mediates the targeting of membran...
AbstractIn this study, we have established that FtsY, the E. coli homolog of the mammalian signal re...
Proteins are inserted into the bacterial plasma membrane cotranslationally after translating ribosom...
The signal recognition particle (SRP) delivers ~30% of the proteome to the eukaryotic endoplasmic re...
The signal recognition particle (SRP) delivers ∼30% of the proteome to the eukaryotic endoplasmic re...
Recent studies have indicated that FtsY, the signal recognition particle receptor of Escherichia col...
Cotranslational protein targeting delivers proteins to the bacterial cytoplasmic membrane or to the ...
Membrane proteins in bacteria are cotranslationally inserted into the plasma membrane through the Se...
The signal recognition particle (SRP) and SRP receptor comprise the major cellular machinery that me...
Signal-recognition particle (SRP)-dependent targeting of translating ribosomes to membranes is a mul...
Deciphering the nature of protein interactions at the membrane surface is crucial to understanding t...
Translocation of proteins into or across the lipid bilayer is an essential process for all living c...
Signal sequences of secretory and membrane proteins are recognized by the signal recognition particl...
The bacterial signal recognition particle (SRP) binds to ribosomes synthesizing inner membrane prote...
Abstract Background The signal recognition particle (SRP) receptor plays a vital role in co-translat...
The universally conserved signal recognition particle (SRP) system mediates the targeting of membran...
AbstractIn this study, we have established that FtsY, the E. coli homolog of the mammalian signal re...
Proteins are inserted into the bacterial plasma membrane cotranslationally after translating ribosom...
The signal recognition particle (SRP) delivers ~30% of the proteome to the eukaryotic endoplasmic re...
The signal recognition particle (SRP) delivers ∼30% of the proteome to the eukaryotic endoplasmic re...
Recent studies have indicated that FtsY, the signal recognition particle receptor of Escherichia col...
Cotranslational protein targeting delivers proteins to the bacterial cytoplasmic membrane or to the ...
Membrane proteins in bacteria are cotranslationally inserted into the plasma membrane through the Se...
The signal recognition particle (SRP) and SRP receptor comprise the major cellular machinery that me...
Signal-recognition particle (SRP)-dependent targeting of translating ribosomes to membranes is a mul...
Deciphering the nature of protein interactions at the membrane surface is crucial to understanding t...
Translocation of proteins into or across the lipid bilayer is an essential process for all living c...
Signal sequences of secretory and membrane proteins are recognized by the signal recognition particl...
The bacterial signal recognition particle (SRP) binds to ribosomes synthesizing inner membrane prote...
Abstract Background The signal recognition particle (SRP) receptor plays a vital role in co-translat...
The universally conserved signal recognition particle (SRP) system mediates the targeting of membran...
AbstractIn this study, we have established that FtsY, the E. coli homolog of the mammalian signal re...