Parallel temperature molecular dynamics simulations are used to explore the folding of a signal peptide, a short but functionally independent domain at the N-terminus of proteins. The peptide has been analyzed previously by NMR, and thus a solid reference state is provided with the experimental structure. Particular attention is paid to the role of water considered in full atomic detail. Different partial aspects in the folding process are quantified. The major group of obtained structures matches the NMR structure very closely. An important biological consequence is that in vivo folding of signal peptides seems to be possible within aqueous environments
Peptides often have conformational preferences. We simulated 133 peptide 8-mer fragments from six di...
AbstractThe β-hairpin fold mechanism of a nine-residue peptide, which is modified from the β-hairpin...
The dynamics of the three-stranded β-sheet peptide Betanova has been studied at four different tempe...
Parallel temperature molecular dynamics simulations are used to explore the folding of a signal pept...
Parallel temperature molecular dynamics simulations are used to explore the folding of a signal pept...
To evaluate the ability of molecular dynamics (MD) simulations using atomic force-fields to correctl...
To evaluate the ability of molecular dynamics (MD) simulations using atomic force-fields to correctl...
The focus of the PhD has been the investigation of the environmental effects on peptide and protein ...
Long-standing questions on how peptides fold are addressed by the simulation at different temperatur...
It is important to understand the conformational biases that are present in unfolded states to under...
ABSTRACT The dynamics of the three-stranded -sheet peptide Betanova has been stud-ied at four differ...
It is generally accepted that protein folding proceeds via local folded intermediates which functio...
The dynamics of the three-stranded beta-sheet peptide Betanova has been studied at four different te...
The hydrophobic effect is a major driving force in protein folding. A complete understanding of this...
We present here an efficient and accurate procedure for modeling of the three-dimensional structures...
Peptides often have conformational preferences. We simulated 133 peptide 8-mer fragments from six di...
AbstractThe β-hairpin fold mechanism of a nine-residue peptide, which is modified from the β-hairpin...
The dynamics of the three-stranded β-sheet peptide Betanova has been studied at four different tempe...
Parallel temperature molecular dynamics simulations are used to explore the folding of a signal pept...
Parallel temperature molecular dynamics simulations are used to explore the folding of a signal pept...
To evaluate the ability of molecular dynamics (MD) simulations using atomic force-fields to correctl...
To evaluate the ability of molecular dynamics (MD) simulations using atomic force-fields to correctl...
The focus of the PhD has been the investigation of the environmental effects on peptide and protein ...
Long-standing questions on how peptides fold are addressed by the simulation at different temperatur...
It is important to understand the conformational biases that are present in unfolded states to under...
ABSTRACT The dynamics of the three-stranded -sheet peptide Betanova has been stud-ied at four differ...
It is generally accepted that protein folding proceeds via local folded intermediates which functio...
The dynamics of the three-stranded beta-sheet peptide Betanova has been studied at four different te...
The hydrophobic effect is a major driving force in protein folding. A complete understanding of this...
We present here an efficient and accurate procedure for modeling of the three-dimensional structures...
Peptides often have conformational preferences. We simulated 133 peptide 8-mer fragments from six di...
AbstractThe β-hairpin fold mechanism of a nine-residue peptide, which is modified from the β-hairpin...
The dynamics of the three-stranded β-sheet peptide Betanova has been studied at four different tempe...