Amyloid fibrils resulting from uncontrolled peptide aggregation are associated with several neurodegenerative diseases. Their polymorphism depends on a number of factors including pH, ionic strength, electrostatic interactions, hydrophobic interactions, hydrogen bonding, aromatic stacking interactions, and chirality. Understanding the mechanism of amyloid fibril formation can improve strategies towards the prevention of fibrillation processes and enable a wide range of potential applications in nanotemplating and nanotechnology
Amyloid polymorphism presents a challenge to physical theories of amyloid formation and stability. T...
Our understanding of the molecular structures of amyloid fibrils that are associated with neurodegen...
The self-assembly of abnormally folded proteins into amyloid fibrils is a hallmark of many debilitat...
Amyloid fibrils resulting from uncontrolled peptide aggregation are associated with several neurodeg...
International audienceProtein aggregation into highly ordered, regularly repeated cross-β sheet stru...
Amyloidogenic model peptides are invaluable for investigating assembly mechanisms in disease related...
Peptide and protein self-assembly resulting in the formation of amyloidogenic aggregates is generall...
Amyloid-like fibrous crystals formed by the peptide KFFEAAAKKFFE have been previously characterized ...
A general characteristic of aggregation is the multiple interaction and cross-feedback among distinc...
Proteins play a critical role in living systems by performing most of the functions inside cells. Th...
A general characteristic of aggregation is the multiple interaction and cross-feedback among distinc...
The common view on the amyloid fibril formation is that it is a multistep process that involves many...
Protein misfolding and self-assembly into the amyloid state is associated with a range of neurodegen...
Misfolding of proteins into amyloid structures is implicated as a pathological feature in several ne...
Misfolding of proteins into amyloid structures is implicated as a pathological feature in several ne...
Amyloid polymorphism presents a challenge to physical theories of amyloid formation and stability. T...
Our understanding of the molecular structures of amyloid fibrils that are associated with neurodegen...
The self-assembly of abnormally folded proteins into amyloid fibrils is a hallmark of many debilitat...
Amyloid fibrils resulting from uncontrolled peptide aggregation are associated with several neurodeg...
International audienceProtein aggregation into highly ordered, regularly repeated cross-β sheet stru...
Amyloidogenic model peptides are invaluable for investigating assembly mechanisms in disease related...
Peptide and protein self-assembly resulting in the formation of amyloidogenic aggregates is generall...
Amyloid-like fibrous crystals formed by the peptide KFFEAAAKKFFE have been previously characterized ...
A general characteristic of aggregation is the multiple interaction and cross-feedback among distinc...
Proteins play a critical role in living systems by performing most of the functions inside cells. Th...
A general characteristic of aggregation is the multiple interaction and cross-feedback among distinc...
The common view on the amyloid fibril formation is that it is a multistep process that involves many...
Protein misfolding and self-assembly into the amyloid state is associated with a range of neurodegen...
Misfolding of proteins into amyloid structures is implicated as a pathological feature in several ne...
Misfolding of proteins into amyloid structures is implicated as a pathological feature in several ne...
Amyloid polymorphism presents a challenge to physical theories of amyloid formation and stability. T...
Our understanding of the molecular structures of amyloid fibrils that are associated with neurodegen...
The self-assembly of abnormally folded proteins into amyloid fibrils is a hallmark of many debilitat...