We review recent developments of modern simulation techniques that allow study of structural transitions and folding in peptides and small proteins. As one example for applications of these techniques, we study the helix formation in homopolymers. These investigations are then extended to research into the relation between helix-coil transition and folding in a simple artificial peptide. Finally, we present recent results on the 36-residue villin headpiece peptide HP-36 as an example for structure prediction of proteins with our techniques. © 2002 Elsevier Science B.V. All rights reserved
The three-dimensional structure of protein is encoded in its amino acid sequence. Modern structure p...
Discontinuous molecular dynamics (DMD) simulation on an intermediate-resolution protein model is use...
The minimum free energy state of a protein (the native state) is encoded by its amino-acid sequence....
Studying simple artificial peptides, we show that recently developed simulation techniques enable ef...
Studying simple artificial peptides, we show that recently developed simulation techniques enable ef...
Proteins are polymers, whose complex chemistry and physics, in the course of evo-lution, permitted t...
Most proteins require appropriate folding in order to perform their respective functions, whereas mi...
A multiscale simulation method of protein folding is proposed, using atomic representation of protei...
Multicanonical simulations with high statistics of a simple artificial peptide, the 25 residue Ala10...
In this study we evaluate, at full atomic detail, the folding processes of two small helical protein...
Although protein folding studies have considerably evolved during the past several years, the mechan...
Proteins are polymers, whose complex chemistry and physics, in the course of evo- lution, permitted ...
Raw simulations data (protein only) of designed stapled α-helix peptides. More details can be found ...
Proteins are polymers, whose complex chemistry and physics, in the course of evolution, permitted th...
Peptides often have conformational preferences. We simulated 133 peptide 8-mer fragments from six di...
The three-dimensional structure of protein is encoded in its amino acid sequence. Modern structure p...
Discontinuous molecular dynamics (DMD) simulation on an intermediate-resolution protein model is use...
The minimum free energy state of a protein (the native state) is encoded by its amino-acid sequence....
Studying simple artificial peptides, we show that recently developed simulation techniques enable ef...
Studying simple artificial peptides, we show that recently developed simulation techniques enable ef...
Proteins are polymers, whose complex chemistry and physics, in the course of evo-lution, permitted t...
Most proteins require appropriate folding in order to perform their respective functions, whereas mi...
A multiscale simulation method of protein folding is proposed, using atomic representation of protei...
Multicanonical simulations with high statistics of a simple artificial peptide, the 25 residue Ala10...
In this study we evaluate, at full atomic detail, the folding processes of two small helical protein...
Although protein folding studies have considerably evolved during the past several years, the mechan...
Proteins are polymers, whose complex chemistry and physics, in the course of evo- lution, permitted ...
Raw simulations data (protein only) of designed stapled α-helix peptides. More details can be found ...
Proteins are polymers, whose complex chemistry and physics, in the course of evolution, permitted th...
Peptides often have conformational preferences. We simulated 133 peptide 8-mer fragments from six di...
The three-dimensional structure of protein is encoded in its amino acid sequence. Modern structure p...
Discontinuous molecular dynamics (DMD) simulation on an intermediate-resolution protein model is use...
The minimum free energy state of a protein (the native state) is encoded by its amino-acid sequence....