AbstractRibosome display is a powerful tool for selecting and evolving protein functions through ligand-binding. Here, this in vitro system was used to perform selection based on the folding properties of proteins, independent of specific ligand-binding. The selection is based on two properties of misfolded proteins: (1) increased sensitivity to proteolysis and (2) greater exposure of hydrophobic area. By targeting these properties, we show that compactly folded and soluble proteins can be enriched over insoluble and random coil proteins. This approach may be especially useful for selection and evolution of folded proteins from random sequence libraries
The kinetics and thermodynamics of protein folding are commonly studied in vitro by denaturing/renat...
mRNA-display is an amplification-based, iterative rounds of in vitro protein selection technique tha...
Computational algorithms for protein design can sample large regions of sequence space, but suffer f...
AbstractRibosome display is a powerful tool for selecting and evolving protein functions through lig...
As more and more protein structures are determined, it has become clear that there is only a limited...
AbstractThe in vitro selection and simultaneous evolution of proteins is feasible by means of riboso...
AbstractStructural comparison of in vitro evolved proteins with biological proteins will help determ...
Ribosome display has proven to be a powerful in vitro selection and evolution method for generating ...
AbstractDisplay technologies (e.g. phage and ribosome display) are powerful tools for selecting and ...
Background: Filamentous bacteriophages have been used for the selection of folded peptide and protei...
Artificial binding proteins derived from small protein domains attract attention as a promising alte...
Ribosome display has proven to be a powerful in vitro selection and evolution method for generating ...
AbstractBackground: Display technologies which allow peptides or proteins to be physically associate...
Most proteins have to fold into their native structure, a distinct three-dimensional fold, in order ...
<p>(A) Our adaptation of ribosome display for selection of efficiently translated sequences is shown...
The kinetics and thermodynamics of protein folding are commonly studied in vitro by denaturing/renat...
mRNA-display is an amplification-based, iterative rounds of in vitro protein selection technique tha...
Computational algorithms for protein design can sample large regions of sequence space, but suffer f...
AbstractRibosome display is a powerful tool for selecting and evolving protein functions through lig...
As more and more protein structures are determined, it has become clear that there is only a limited...
AbstractThe in vitro selection and simultaneous evolution of proteins is feasible by means of riboso...
AbstractStructural comparison of in vitro evolved proteins with biological proteins will help determ...
Ribosome display has proven to be a powerful in vitro selection and evolution method for generating ...
AbstractDisplay technologies (e.g. phage and ribosome display) are powerful tools for selecting and ...
Background: Filamentous bacteriophages have been used for the selection of folded peptide and protei...
Artificial binding proteins derived from small protein domains attract attention as a promising alte...
Ribosome display has proven to be a powerful in vitro selection and evolution method for generating ...
AbstractBackground: Display technologies which allow peptides or proteins to be physically associate...
Most proteins have to fold into their native structure, a distinct three-dimensional fold, in order ...
<p>(A) Our adaptation of ribosome display for selection of efficiently translated sequences is shown...
The kinetics and thermodynamics of protein folding are commonly studied in vitro by denaturing/renat...
mRNA-display is an amplification-based, iterative rounds of in vitro protein selection technique tha...
Computational algorithms for protein design can sample large regions of sequence space, but suffer f...