The protein shells, or capsids, of nearly all spherelike viruses adopt icosahedral symmetry. In the present Letter, we propose a statistical thermodynamic model for viral self-assembly. We find that icosahedral symmetry is not expected for viral capsids constructed from structurally identical protein subunits and that this symmetry requires (at least) two internal switching configurations of the protein. Our results indicate that icosahedral symmetry is not a generic consequence of free energy minimization but requires optimization of internal structural parameters of the capsid protein
Interactions between viral coat proteins determine the size and shape of the virus capsid. Therefore...
AbstractCapsids of spherical viruses share a common architecture: an icosahedral arrangement of iden...
The majority of viruses on Earth form capsids built by multiple copies of one or more types of a coa...
The protein shells, or capsids, of nearly all spherelike viruses adopt icosahedral symmetry. In the ...
The successful assembly of a closed protein shell (or capsid) is a key step in the replication of vi...
Virus capsid assembly is a critical step in the viral life cycle. The underlying basis of capsid st...
Small spherical viruses spontaneously encapsidate their genome into protein capsids. The encapsidati...
Understanding how highly symmetric, robust, monodisperse protein nano-cages self-assemblecan have ma...
While small single-stranded viral shells encapsidate their genome spontaneously, many large viruses,...
International audienceThe survival of viruses partly relies on their ability to self-assemble inside...
We simulate the assembly dynamics of icosahedral capsids from subunits that interconvert between dif...
Since the seminal work of Caspar and Klug on the structure of the protein containers that encapsulat...
Viruses are submicroscopic biological entities that need to infect a host cell in order to replicate...
Viruses are submicroscopic biological entities that need to infect a host cell in order to replicate...
AbstractLocal rules are given for various virus capsid, or protein shell, geometries. Local rules sp...
Interactions between viral coat proteins determine the size and shape of the virus capsid. Therefore...
AbstractCapsids of spherical viruses share a common architecture: an icosahedral arrangement of iden...
The majority of viruses on Earth form capsids built by multiple copies of one or more types of a coa...
The protein shells, or capsids, of nearly all spherelike viruses adopt icosahedral symmetry. In the ...
The successful assembly of a closed protein shell (or capsid) is a key step in the replication of vi...
Virus capsid assembly is a critical step in the viral life cycle. The underlying basis of capsid st...
Small spherical viruses spontaneously encapsidate their genome into protein capsids. The encapsidati...
Understanding how highly symmetric, robust, monodisperse protein nano-cages self-assemblecan have ma...
While small single-stranded viral shells encapsidate their genome spontaneously, many large viruses,...
International audienceThe survival of viruses partly relies on their ability to self-assemble inside...
We simulate the assembly dynamics of icosahedral capsids from subunits that interconvert between dif...
Since the seminal work of Caspar and Klug on the structure of the protein containers that encapsulat...
Viruses are submicroscopic biological entities that need to infect a host cell in order to replicate...
Viruses are submicroscopic biological entities that need to infect a host cell in order to replicate...
AbstractLocal rules are given for various virus capsid, or protein shell, geometries. Local rules sp...
Interactions between viral coat proteins determine the size and shape of the virus capsid. Therefore...
AbstractCapsids of spherical viruses share a common architecture: an icosahedral arrangement of iden...
The majority of viruses on Earth form capsids built by multiple copies of one or more types of a coa...