Many small proteins fold in a two-state manner, the rate-limiting step being the passage of the free-energy barrier separating the unfolded state from the native one. The free-energy barrier is, however, weak or absent for the fastest-folding proteins. Here a simple diffusion picture for such proteins is discussed. It is tested on a model protein that makes a three-helix bundle. Assuming the motion along individual reaction coordinates to be diffusive on timescales beyond the reconfiguration time for a single helix, it is found that the relaxation time can be predicted within a factor of two. It is also shown that melting curves for this protein to a good approximation can be described in terms of a simple two-state system, despite the abse...
By means of the conformational free energy surface and corresponding diffusion coefficients, as obta...
BackgroundRecent experimental and theoretical studies have revealed that protein folding kinetics ca...
10 pages, 7 figures.-- PMID: 16834320 [PubMed].-- PMCID: PMC2546509.-- Author manuscript available i...
ABSTRACT We present a Monte Carlo study of a model protein with 54 amino acids that folds directly t...
BackgroundRecent data have suggested two principles that are central to the work we describe here. F...
For many decades, protein folding experimentalists have worked with no information about the timesca...
Protein folding has been a challenging puzzle for decades but it is still not fully understood. One ...
By exploring the folding pathways of the B1 domain of protein L with a series of equilibrium and rap...
Abstract. This thesis describes factors that are rate limiting for the folding of two small proteins...
Protein folding is one of the most fundamental problems in biophysics and structural biology. Despit...
We study the folding kinetics of a three-helix bundle protein using a coarse polymer model. The fold...
Proteins fold on a mu s-ms time scale. However, the number of possible conformations of the polypept...
Configuration-dependent diffusion (CDD) is important for protein folding kinetics with small thermod...
Experimental techniques have now reached the sub-microsecond timescale necessary to study fast event...
AbstractA theoretical framework is developed to study the dynamics of protein folding. The key insig...
By means of the conformational free energy surface and corresponding diffusion coefficients, as obta...
BackgroundRecent experimental and theoretical studies have revealed that protein folding kinetics ca...
10 pages, 7 figures.-- PMID: 16834320 [PubMed].-- PMCID: PMC2546509.-- Author manuscript available i...
ABSTRACT We present a Monte Carlo study of a model protein with 54 amino acids that folds directly t...
BackgroundRecent data have suggested two principles that are central to the work we describe here. F...
For many decades, protein folding experimentalists have worked with no information about the timesca...
Protein folding has been a challenging puzzle for decades but it is still not fully understood. One ...
By exploring the folding pathways of the B1 domain of protein L with a series of equilibrium and rap...
Abstract. This thesis describes factors that are rate limiting for the folding of two small proteins...
Protein folding is one of the most fundamental problems in biophysics and structural biology. Despit...
We study the folding kinetics of a three-helix bundle protein using a coarse polymer model. The fold...
Proteins fold on a mu s-ms time scale. However, the number of possible conformations of the polypept...
Configuration-dependent diffusion (CDD) is important for protein folding kinetics with small thermod...
Experimental techniques have now reached the sub-microsecond timescale necessary to study fast event...
AbstractA theoretical framework is developed to study the dynamics of protein folding. The key insig...
By means of the conformational free energy surface and corresponding diffusion coefficients, as obta...
BackgroundRecent experimental and theoretical studies have revealed that protein folding kinetics ca...
10 pages, 7 figures.-- PMID: 16834320 [PubMed].-- PMCID: PMC2546509.-- Author manuscript available i...