We investigated the influence of the protruding domain of Norwalk virus-like particles (NVLP) on its overall structural and mechanical stability. Deletion of the protruding domain yields smooth mutant particles and our AFM nanoindentation measurements show a surprisingly altered indentation response of these particles. Notably, the brittle behavior of the NVLP as compared to the plastic behavior of the mutant reveals that the protruding domain drastically changes the capsid’s material properties. We conclude that the protruding domain introduces prestress, thereby increasing the stiffness of the NVLP and effectively stabilizing the viral nanoparticles. Our results exemplify the variety of methods that nature has explored to improve the mech...
Capsid maturation with large-scale subunit reorganization occurs in virtually all viruses that use a...
Single-molecule experimental techniques and theoretical approaches reveal that important aspects of ...
The capsids of icosahedral viruses are closed shells assembled from a hexagonal lattice of proteins ...
We investigated the influence of the protruding domain of Norwalk virus-like particles (NVLP) on its...
Studying the mechanical properties of viral capsids can give several insights into not only the life...
Recent studies reveal that the mechanical properties of virus particles may have been shaped by evol...
The archetypical protein nanoshell is the capsid that surrounds viral genomes. These capsids protect...
The effects of changes in the loading rate during the forced dissociation of single bonds have been ...
Viruses are nanoscale infectious agents constructed of a proteinaceous capsid that protects the pack...
A coarse-grained model is used to study the mechanical response of 35 virus capsids of symmetries T ...
Viruses are nanosized, genome-filled protein containers with remarkable thermodynamic and mechanical...
The elastic properties of capsids of the cowpea chlorotic mottle virus have been examined at pH 4.8 ...
The shell of bacteriophages protects the viral DNA during host-to-host transfer and serves as a high...
Single-molecule experimental techniques and theoretical approaches reveal that important aspects of ...
AbstractA series of recent nanoindentation experiments on the protein shells (capsids) of viruses ha...
Capsid maturation with large-scale subunit reorganization occurs in virtually all viruses that use a...
Single-molecule experimental techniques and theoretical approaches reveal that important aspects of ...
The capsids of icosahedral viruses are closed shells assembled from a hexagonal lattice of proteins ...
We investigated the influence of the protruding domain of Norwalk virus-like particles (NVLP) on its...
Studying the mechanical properties of viral capsids can give several insights into not only the life...
Recent studies reveal that the mechanical properties of virus particles may have been shaped by evol...
The archetypical protein nanoshell is the capsid that surrounds viral genomes. These capsids protect...
The effects of changes in the loading rate during the forced dissociation of single bonds have been ...
Viruses are nanoscale infectious agents constructed of a proteinaceous capsid that protects the pack...
A coarse-grained model is used to study the mechanical response of 35 virus capsids of symmetries T ...
Viruses are nanosized, genome-filled protein containers with remarkable thermodynamic and mechanical...
The elastic properties of capsids of the cowpea chlorotic mottle virus have been examined at pH 4.8 ...
The shell of bacteriophages protects the viral DNA during host-to-host transfer and serves as a high...
Single-molecule experimental techniques and theoretical approaches reveal that important aspects of ...
AbstractA series of recent nanoindentation experiments on the protein shells (capsids) of viruses ha...
Capsid maturation with large-scale subunit reorganization occurs in virtually all viruses that use a...
Single-molecule experimental techniques and theoretical approaches reveal that important aspects of ...
The capsids of icosahedral viruses are closed shells assembled from a hexagonal lattice of proteins ...