This platform reconstructs a complete T7 phage infection cycle in synthetic cells rather than living bacteria. The abstract states that it supports adsorption, genome entry, replication, expression, and assembly of infectious virions.
First-pass extracted concept
synthetic cell phage cycle
Aliases
all-cell-free viral cycle
Extracted Explainers
What the tool is doing
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What problem it solves
What it does not solve
Evidence Snippets
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Linked Claims
The platform supports observation of T7 phage-specific adsorption to liposomes, genome entry, replication, expression, and assembly of new infectious virions within synthetic cells.
We track each cycle step to demonstrate T7 phage-specific adsorption onto the liposomes, genome entry, replication, expression, and assembly of new infectious virions within the synthetic cells.
The paper establishes an all-cell-free viral cycle in which T7 phages infect synthetic cells bearing outer-leaflet lipopolysaccharides and encapsulating a cell-free gene expression system.
Here, we establish an all-cell-free viral cycle where T7 phages infect synthetic cells, equipped with lipopolysaccharides on the outer leaflet of the lipid membrane, while encapsulating a cell-free gene expression system.
The study quantifies multiplicity of infection, replication efficiency, liposome size constraints, and phage rebinding dynamics in the synthetic cell phage cycle.
We quantify key characteristics of the cycle, including the multiplicity of infection, replication efficiency, liposome size constraints, and phage rebinding dynamics.
The synthetic cell phage cycle is presented as a versatile, fully defined in vitro platform for reconstructing and investigating viral infections from individual molecular components.
This work establishes a versatile, fully defined in vitro platform for reconstructing and investigating viral infections from individual molecular components.