We present a top-down approach to the study of the dynamics of icosahedral virus capsids, in which each protein is approximated by a point mass. Although this represents a rather crude coarse-graining, we argue that it highlights several generic features of vibrational spectra which have been overlooked so far. We furthermore discuss the consequences of approximate inversion symmetry as well as the role played by viral tiling theory in the study of virus capsid vibrations
Simple, spherical RNA viruses have well-understood, symmetric protein capsids, but little structural...
Many larger and more complex viruses deviate from the capsid layouts predicted in the seminal Caspar...
The capsids of the spherical viruses all show underlying icosahedral symmetry, yet they differ marke...
We present a top-down approach to the study of the dynamics of icosahedral virus capsids, in which e...
We present a top-down approach to the study of the dynamics of icosahedral virus capsids, in which e...
We explore the use of a top-down approach to analyse the dynamics of icosahedral virus capsids and c...
The Caspar–Klug classification of viruses whose protein shell, called viral capsid, exhibits icosahe...
Group theoretical arguments combined with normal mode analysis techniques are applied to a coarse-gr...
Since the seminal work of Caspar and Klug on the structure of the protein containers that encapsulat...
AbstractMany icosahedral viruses undergo large-scale conformational transitions between icosahedrall...
A vital constituent of a virus is its protein shell, called the viral capsid, that encapsulates and ...
The majority of viruses on Earth form capsids built by multiple copies of one or more types of a coa...
Described as âorganisms at the edge of lifeâ, viruses are the most abundant type of biological entit...
Viruses have evolved protein containers with a wide spectrum of icosahedral architectures to protect...
A novel approach for the description of the protein stoichiometry of viral capsids, that is the prot...
Simple, spherical RNA viruses have well-understood, symmetric protein capsids, but little structural...
Many larger and more complex viruses deviate from the capsid layouts predicted in the seminal Caspar...
The capsids of the spherical viruses all show underlying icosahedral symmetry, yet they differ marke...
We present a top-down approach to the study of the dynamics of icosahedral virus capsids, in which e...
We present a top-down approach to the study of the dynamics of icosahedral virus capsids, in which e...
We explore the use of a top-down approach to analyse the dynamics of icosahedral virus capsids and c...
The Caspar–Klug classification of viruses whose protein shell, called viral capsid, exhibits icosahe...
Group theoretical arguments combined with normal mode analysis techniques are applied to a coarse-gr...
Since the seminal work of Caspar and Klug on the structure of the protein containers that encapsulat...
AbstractMany icosahedral viruses undergo large-scale conformational transitions between icosahedrall...
A vital constituent of a virus is its protein shell, called the viral capsid, that encapsulates and ...
The majority of viruses on Earth form capsids built by multiple copies of one or more types of a coa...
Described as âorganisms at the edge of lifeâ, viruses are the most abundant type of biological entit...
Viruses have evolved protein containers with a wide spectrum of icosahedral architectures to protect...
A novel approach for the description of the protein stoichiometry of viral capsids, that is the prot...
Simple, spherical RNA viruses have well-understood, symmetric protein capsids, but little structural...
Many larger and more complex viruses deviate from the capsid layouts predicted in the seminal Caspar...
The capsids of the spherical viruses all show underlying icosahedral symmetry, yet they differ marke...