Hydrophobic interactions between molecular chaperones and their nonnative substrates have been believed to be mainly responsible for both substrate recognition and stabilization against aggregation. However, the hydrophobic contact area between DnaK and its substrate proteins is very limited and other factors of DnaK for the substrate stabilization could not be excluded. Here, we covalently fused DnaK to the N-termini of aggregation-prone proteins in vivo. In the context of a fusion protein, DnaK has the ability to efficiently solubilize its linked proteins. The point mutation of the residue of DnaK critical for the substrate recognition and the deletion of the C-terminal substrate-binding domain did not have significant effect on the solub...
DnaK is a member of the Hsp70 family of molecular chaperones. This molecular machine couples the bin...
DnaK is a member of the Hsp70 family of molecular chaperones. This molecular machine couples the bin...
Cellular chaperone networks prevent potentially toxic protein aggregation and ensure proteome integr...
Hydrophobic interactions between molecular chaperones and their nonnative substrates have been belie...
Classic in vitro studies show that the Hsp70 chaperone system from Escherichia coli (DnaK-DnaJ-GrpE,...
In Escherichia coli, the ribosome-associated Trigger Factor (TF) cooperates with the DnaK system in ...
The molecular chaperones ClpB (Hsp104) and DnaK (Hsp70) co-operate in the ATP-dependent resolubiliza...
The molecular chaperones ClpB (Hsp104) and DnaK (Hsp70) co−operate in the ATP−dependent resolubiliza...
Hsp70 is a central molecular chaperone that passively prevents protein aggregation and uses the ener...
The role of bacterial DnaJ protein as a cochaperone of DnaK is strongly appreciated. Although DnaJ u...
Misfolding-prone proteins produced in bacteria usually fail to adopt their native conformation and a...
Hsp70 chaperons interact with protein substrates in an ATP-dependent manner to prevent aggregation a...
Recent evidence supports the view that cellular protein folding may be mediated by molecular chapero...
Background: The molecular mechanics of inclusion body formation is still far from being completely u...
Hsp70 chaperons interact with protein substrates in an ATP−dependent manner to prevent aggregation a...
DnaK is a member of the Hsp70 family of molecular chaperones. This molecular machine couples the bin...
DnaK is a member of the Hsp70 family of molecular chaperones. This molecular machine couples the bin...
Cellular chaperone networks prevent potentially toxic protein aggregation and ensure proteome integr...
Hydrophobic interactions between molecular chaperones and their nonnative substrates have been belie...
Classic in vitro studies show that the Hsp70 chaperone system from Escherichia coli (DnaK-DnaJ-GrpE,...
In Escherichia coli, the ribosome-associated Trigger Factor (TF) cooperates with the DnaK system in ...
The molecular chaperones ClpB (Hsp104) and DnaK (Hsp70) co-operate in the ATP-dependent resolubiliza...
The molecular chaperones ClpB (Hsp104) and DnaK (Hsp70) co−operate in the ATP−dependent resolubiliza...
Hsp70 is a central molecular chaperone that passively prevents protein aggregation and uses the ener...
The role of bacterial DnaJ protein as a cochaperone of DnaK is strongly appreciated. Although DnaJ u...
Misfolding-prone proteins produced in bacteria usually fail to adopt their native conformation and a...
Hsp70 chaperons interact with protein substrates in an ATP-dependent manner to prevent aggregation a...
Recent evidence supports the view that cellular protein folding may be mediated by molecular chapero...
Background: The molecular mechanics of inclusion body formation is still far from being completely u...
Hsp70 chaperons interact with protein substrates in an ATP−dependent manner to prevent aggregation a...
DnaK is a member of the Hsp70 family of molecular chaperones. This molecular machine couples the bin...
DnaK is a member of the Hsp70 family of molecular chaperones. This molecular machine couples the bin...
Cellular chaperone networks prevent potentially toxic protein aggregation and ensure proteome integr...