
AbstractMany enveloped viruses are released from infected cells by maturing and budding at the plasma membrane. During this process, viral core components are incorporated into membrane vesicles that contain viral transmembrane proteins, termed ‘spike’ proteins. For many years these spike proteins, which are required for infectivity, were believed to be incorporated into virions via a direct interaction between their cytoplasmic domains and viral core components. More recent evidence shows that, while such direct interactions drive budding of alphaviruses, this may not be the case for negative strand RNA viruses and retroviruses. These viruses can bud particles in the absence of spike proteins, using only viral core components to drive the process. In some cases the spike proteins, without the viral core, can be released as virus‐like particles. Optimal budding and release may, therefore, depend on a ‘push‐and‐pull’ concerted action of core and spike, where oligomerization of both components plays a crucial role.
Models, Molecular, Viral Structural Proteins, Retroviridae, Viral Envelope Proteins, Cell Membrane, Membrane Proteins, RNA Viruses, Alphavirus, Nucleocapsid
Models, Molecular, Viral Structural Proteins, Retroviridae, Viral Envelope Proteins, Cell Membrane, Membrane Proteins, RNA Viruses, Alphavirus, Nucleocapsid
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