Viruses are known to tolerate wide ranges of pH and salt conditions and to withstand internal pressures as high as 100 atmospheres. In this paper we investigate the mechanical properties of viral capsids, calling explicit attention to the inhomogeneity of the shells that is inherent to their discrete and polyhedral nature. We calculate the distribution of stress in these capsids and analyze their response to isotropic internal pressure (arising, for instance, from genome confinement and/or osmotic activity). We compare our results with appropriate generalizations of classical (i.e., continuum) elasticity theory. We also examine competing mechanisms for viral shell failure, e.g., in-plane crack formation vs radial bursting. The biological c...
AbstractThe mechanical properties of viral shells are crucial for viral assembly and infection. To s...
A coarse-grained model is used to study the mechanical response of 35 virus capsids of symmetries T ...
Viruses are in many ways fascinating biological systems. They vary in their structure, their replica...
Viruses are known to tolerate wide ranges of pH and salt conditions and to withstand internal pressu...
Viruses are an important subject to biological research. In particular their astonishing ability to ...
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...
Many larger and more complex viruses deviate from the capsid layouts predicted in the seminal Caspar...
AbstractVirus capsids and crystalline surfactant vesicles are two examples of self-assembled shells ...
AbstractOsmotic shock is a familiar means for rupturing viral capsids and exposing their genomes int...
Virus capsids are protein shells which protect the virus genome, and determination of their mechanic...
Viruses are nanosized, genome-filled protein containers with remarkable thermodynamic and mechanical...
AbstractA series of recent nanoindentation experiments on the protein shells (capsids) of viruses ha...
Virus capsids and crystalline surfactant vesicles are two examples of self-assembled shells in the n...
The main functions of viral capsids are to protect, transport and deliver their genome. The mechanic...
AbstractThe mechanical properties of viral shells are crucial for viral assembly and infection. To s...
A coarse-grained model is used to study the mechanical response of 35 virus capsids of symmetries T ...
Viruses are in many ways fascinating biological systems. They vary in their structure, their replica...
Viruses are known to tolerate wide ranges of pH and salt conditions and to withstand internal pressu...
Viruses are an important subject to biological research. In particular their astonishing ability to ...
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...
Many larger and more complex viruses deviate from the capsid layouts predicted in the seminal Caspar...
AbstractVirus capsids and crystalline surfactant vesicles are two examples of self-assembled shells ...
AbstractOsmotic shock is a familiar means for rupturing viral capsids and exposing their genomes int...
Virus capsids are protein shells which protect the virus genome, and determination of their mechanic...
Viruses are nanosized, genome-filled protein containers with remarkable thermodynamic and mechanical...
AbstractA series of recent nanoindentation experiments on the protein shells (capsids) of viruses ha...
Virus capsids and crystalline surfactant vesicles are two examples of self-assembled shells in the n...
The main functions of viral capsids are to protect, transport and deliver their genome. The mechanic...
AbstractThe mechanical properties of viral shells are crucial for viral assembly and infection. To s...
A coarse-grained model is used to study the mechanical response of 35 virus capsids of symmetries T ...
Viruses are in many ways fascinating biological systems. They vary in their structure, their replica...