AbstractUnderstanding how proteins fold is one of the central problems in biochemistry. A new generation of kinetic experiments has emerged to investigate the mechanisms of protein folding on the previously inaccessible submillisecond time scale. These experiments provide the first glimpse of processes such as secondary structure formation, local hydrophobic collapse, global collapse to compact denatured states, and fast barrier crossings to the native state. Key results are summarized and discussed in terms of the statistical energy landscape theory of protein folding
We propose an approach to integrate the theory, simulations, and experiments in protein-folding kine...
Protein folding is modeled as diffusion on a free-energy landscape, allowing use of the diffusion eq...
We propose an approach to integrate the theory, simulations, and experiments in protein-folding kine...
AbstractUnderstanding how proteins fold is one of the central problems in biochemistry. A new genera...
AbstractThe rapid folding of certain proteins can be described theoretically using an energy landsca...
For many decades, protein folding experimentalists have worked with no information about the timesca...
10 pages, 7 figures.-- PMID: 16834320 [PubMed].-- PMCID: PMC2546509.-- Author manuscript available i...
Proteins do not fold by randomly searching a large number of nearly degenerate configurations; inst...
Proteins do not fold by randomly searching a large number of nearly degenerate configurations; inst...
BackgroundRecent experimental and theoretical studies have revealed that protein folding kinetics ca...
BackgroundRecent data have suggested two principles that are central to the work we describe here. F...
Many small, monomeric proteins fold with simple two-state kinetics and show wide variation in foldin...
BackgroundRecent data have suggested two principles that are central to the work we describe here. F...
AbstractWe propose an approach to integrate the theory, simulations, and experiments in protein-fold...
The fastest simple, kinetically two-state protein folds a million times more rapidly than the slowes...
We propose an approach to integrate the theory, simulations, and experiments in protein-folding kine...
Protein folding is modeled as diffusion on a free-energy landscape, allowing use of the diffusion eq...
We propose an approach to integrate the theory, simulations, and experiments in protein-folding kine...
AbstractUnderstanding how proteins fold is one of the central problems in biochemistry. A new genera...
AbstractThe rapid folding of certain proteins can be described theoretically using an energy landsca...
For many decades, protein folding experimentalists have worked with no information about the timesca...
10 pages, 7 figures.-- PMID: 16834320 [PubMed].-- PMCID: PMC2546509.-- Author manuscript available i...
Proteins do not fold by randomly searching a large number of nearly degenerate configurations; inst...
Proteins do not fold by randomly searching a large number of nearly degenerate configurations; inst...
BackgroundRecent experimental and theoretical studies have revealed that protein folding kinetics ca...
BackgroundRecent data have suggested two principles that are central to the work we describe here. F...
Many small, monomeric proteins fold with simple two-state kinetics and show wide variation in foldin...
BackgroundRecent data have suggested two principles that are central to the work we describe here. F...
AbstractWe propose an approach to integrate the theory, simulations, and experiments in protein-fold...
The fastest simple, kinetically two-state protein folds a million times more rapidly than the slowes...
We propose an approach to integrate the theory, simulations, and experiments in protein-folding kine...
Protein folding is modeled as diffusion on a free-energy landscape, allowing use of the diffusion eq...
We propose an approach to integrate the theory, simulations, and experiments in protein-folding kine...