The DnaK/DnaJ Escherichia coli chaperone pair, co-produced along with recombinant proteins, has been widely used to assist protein folding in bacterial cells, although with poor consensus about the ultimate effect on protein quality and its general applicability. Here, we have evaluated for the first time these bacterial proteins as folding modulators in a highly promising recombinant protein platform based on insect larvae. Intriguingly, the bacterial chaperones enhanced the solubility of a reporter, misfolding-prone GFP, doubling the yield of recombinant protein that can be recovered from the larvae extracts in a production process. This occurs without negative effects on the yield of total protein (extractable plus insoluble), indicative...
Recent evidence supports the view that cellular protein folding may be mediated by molecular chapero...
AbstractTrigger factor and DnaK protect nascent protein chains from misfolding and aggregation in th...
Cellular chaperone networks prevent potentially toxic protein aggregation and ensure proteome integr...
The DnaK/DnaJ Escherichia coli chaperone pair, co-produced along with recombinant proteins, has been...
Coproduction of DnaK/DnaJ in Escherichia coli enhances solubility but promotes proteolytic degradati...
Main Escherichia coli cytosolic chaperones such as DnaK are key components of the control quality ne...
Background: The overproduction of recombinant proteins in host cells often leads to their misfolding...
Abstract Background The overproduction of recombinant proteins in host cells often leads to their mi...
Misfolding-prone proteins produced in bacteria usually fail to adopt their native conformation and a...
Despite the fundamental importance of E. coli in the manufacture of a wide range of biotechnological...
Abstract Insufficient availability of molecular chaperones is observed as a major bottleneck for pro...
All secreted proteins in Escherichia coli must be maintained in an exportcompetent state before tran...
The recombinant expression of eukaryotic proteins in Escherichia coli often results in protein aggre...
Insufficient availability of molecular chaperones is observed as a major bottleneck for proper prote...
AbstractA role for DnaK, the major E. coli Hsp70, in chaperoning de novo protein folding has remaine...
Recent evidence supports the view that cellular protein folding may be mediated by molecular chapero...
AbstractTrigger factor and DnaK protect nascent protein chains from misfolding and aggregation in th...
Cellular chaperone networks prevent potentially toxic protein aggregation and ensure proteome integr...
The DnaK/DnaJ Escherichia coli chaperone pair, co-produced along with recombinant proteins, has been...
Coproduction of DnaK/DnaJ in Escherichia coli enhances solubility but promotes proteolytic degradati...
Main Escherichia coli cytosolic chaperones such as DnaK are key components of the control quality ne...
Background: The overproduction of recombinant proteins in host cells often leads to their misfolding...
Abstract Background The overproduction of recombinant proteins in host cells often leads to their mi...
Misfolding-prone proteins produced in bacteria usually fail to adopt their native conformation and a...
Despite the fundamental importance of E. coli in the manufacture of a wide range of biotechnological...
Abstract Insufficient availability of molecular chaperones is observed as a major bottleneck for pro...
All secreted proteins in Escherichia coli must be maintained in an exportcompetent state before tran...
The recombinant expression of eukaryotic proteins in Escherichia coli often results in protein aggre...
Insufficient availability of molecular chaperones is observed as a major bottleneck for proper prote...
AbstractA role for DnaK, the major E. coli Hsp70, in chaperoning de novo protein folding has remaine...
Recent evidence supports the view that cellular protein folding may be mediated by molecular chapero...
AbstractTrigger factor and DnaK protect nascent protein chains from misfolding and aggregation in th...
Cellular chaperone networks prevent potentially toxic protein aggregation and ensure proteome integr...