AbstractWe consider the size distribution of amyloid nanofibrils (protofilaments) in nucleating protein solutions when the nucleation process occurs by the mechanism of direct polymerization of β-strands (extended peptides or protein segments) into β-sheets. Employing the atomistic nucleation theory, we derive a general expression for the stationary size distribution of amyloid nanofibrils constituted of successively layered β-sheets. The application of this expression to amyloid β1-40 (Aβ40) fibrils allows us to determine the nanofibril size distribution as a function of the protein concentration and temperature. The distribution is most remarkable with its exhibiting a series of peaks positioned at “magic” nanofibril sizes (or lengths), w...
AbstractThe initial concentration of monomeric amyloidogenic proteins is a crucial factor in the in ...
The inverse scattering problem is based on the scattering theory in physics, where measured data suc...
One and the same protein can self-assemble into amyloid fibrils with different morphologies. The phe...
AbstractWe consider the size distribution of amyloid nanofibrils (protofilaments) in nucleating prot...
More than twenty types of proteins can adopt misfolded conformations, which can coaggregate into amy...
The question about the size of nuclei of formation of protofibrils (which constitute mature amyloid ...
Amyloid fibrils are proteinaceous nano-scale linear aggregates. They are of key interest not only be...
International audienceMore than twenty types of proteins can adopt misfolded conformations, which ca...
We consider the nucleation of amyloid fibrils when the process occurs by direct polymerization of fu...
AbstractOne and the same protein can self-assemble into amyloid fibrils with different morphologies....
AbstractDelineating the nanoscale properties and the dynamic assembly and disassembly behaviors of a...
We present and study a minimal structure-based model for the self-assembly of peptides into ordered ...
The aggregation of normally soluble peptides and proteins into amyloid fibrils is a process associat...
The classical nucleation theory finds the rate of nucleation proportional to the monomer concentrati...
Understanding the influence of macromolecular crowding and nanoparticles on the formation of in-regi...
AbstractThe initial concentration of monomeric amyloidogenic proteins is a crucial factor in the in ...
The inverse scattering problem is based on the scattering theory in physics, where measured data suc...
One and the same protein can self-assemble into amyloid fibrils with different morphologies. The phe...
AbstractWe consider the size distribution of amyloid nanofibrils (protofilaments) in nucleating prot...
More than twenty types of proteins can adopt misfolded conformations, which can coaggregate into amy...
The question about the size of nuclei of formation of protofibrils (which constitute mature amyloid ...
Amyloid fibrils are proteinaceous nano-scale linear aggregates. They are of key interest not only be...
International audienceMore than twenty types of proteins can adopt misfolded conformations, which ca...
We consider the nucleation of amyloid fibrils when the process occurs by direct polymerization of fu...
AbstractOne and the same protein can self-assemble into amyloid fibrils with different morphologies....
AbstractDelineating the nanoscale properties and the dynamic assembly and disassembly behaviors of a...
We present and study a minimal structure-based model for the self-assembly of peptides into ordered ...
The aggregation of normally soluble peptides and proteins into amyloid fibrils is a process associat...
The classical nucleation theory finds the rate of nucleation proportional to the monomer concentrati...
Understanding the influence of macromolecular crowding and nanoparticles on the formation of in-regi...
AbstractThe initial concentration of monomeric amyloidogenic proteins is a crucial factor in the in ...
The inverse scattering problem is based on the scattering theory in physics, where measured data suc...
One and the same protein can self-assemble into amyloid fibrils with different morphologies. The phe...