AbstractWe show that sequence and growth temperature effects on IB formation in the small, monomeric β-barrel protein interleukin-1β (IL-1β) can be quantitatively reproduced in an in vitro system in which IL-1β is refolded from denaturant at different temperatures. The results suggest that temperature and mutational effects on IB formation may be based on intrinsic properties of the protein sequence rather than interactions with chaperones or other cellular factors. We also report striking correlations of IB formation with mutation-dependent changes in residue hydrophobicity. The nature of these trends differs considerably with residue position, however, suggesting that they are mediated by particular local environments created by an ordere...
AbstractThe molecular organisation of protein aggregates, formed under physiological conditions, has...
The heat-labile alpha-amylase from an antarctic bacterium is the largest known protein that unfolds ...
Author Posting. © American Society for Microbiology, 2004. This article is posted here by permissio...
A point mutation, lysine 97 --\u3e isoleucine (K97I), in a surface loop in the beta-sheet protein in...
Backgound:Inclusion body (IB) formation in bacteria is an important example of protein misassembly, ...
AbstractIncreasing evidence indicates that protein aggregation in bacteria does not necessarily impl...
Inclusion bodies (IBs) are intracellular, insoluble protein aggregates, commonly observed when a pro...
AbstractThough an increasing variety of chaperonins are emerging as important factors in directing p...
Inclusion bodies (IBs) are insoluble aggregate structures that commonly form upon overexpression of ...
The thermodynamic stability and folding kinetics of the all beta-sheet protein interleukin-1beta wer...
AbstractAn optimization of the refolding of endostatin (ES), by a study of the conditions that can a...
Using recombinant antibodies functionally expressed by secretion to the periplasm in Escherichia col...
AbstractMutations in the rpoH gene, encoding σ32, an alternative factor required for transcription o...
AbstractSeveral recombinant proteins in inclusion bodies expressed in Escherichia coli have been mea...
Increasing evidence indicates that polypeptide aggregation often involves a nucleation and a growth ...
AbstractThe molecular organisation of protein aggregates, formed under physiological conditions, has...
The heat-labile alpha-amylase from an antarctic bacterium is the largest known protein that unfolds ...
Author Posting. © American Society for Microbiology, 2004. This article is posted here by permissio...
A point mutation, lysine 97 --\u3e isoleucine (K97I), in a surface loop in the beta-sheet protein in...
Backgound:Inclusion body (IB) formation in bacteria is an important example of protein misassembly, ...
AbstractIncreasing evidence indicates that protein aggregation in bacteria does not necessarily impl...
Inclusion bodies (IBs) are intracellular, insoluble protein aggregates, commonly observed when a pro...
AbstractThough an increasing variety of chaperonins are emerging as important factors in directing p...
Inclusion bodies (IBs) are insoluble aggregate structures that commonly form upon overexpression of ...
The thermodynamic stability and folding kinetics of the all beta-sheet protein interleukin-1beta wer...
AbstractAn optimization of the refolding of endostatin (ES), by a study of the conditions that can a...
Using recombinant antibodies functionally expressed by secretion to the periplasm in Escherichia col...
AbstractMutations in the rpoH gene, encoding σ32, an alternative factor required for transcription o...
AbstractSeveral recombinant proteins in inclusion bodies expressed in Escherichia coli have been mea...
Increasing evidence indicates that polypeptide aggregation often involves a nucleation and a growth ...
AbstractThe molecular organisation of protein aggregates, formed under physiological conditions, has...
The heat-labile alpha-amylase from an antarctic bacterium is the largest known protein that unfolds ...
Author Posting. © American Society for Microbiology, 2004. This article is posted here by permissio...