5LZ6 image
Deposition Date 2016-09-29
Release Date 2016-12-14
Last Version Date 2024-01-17
Entry Detail
PDB ID:
5LZ6
Title:
Crystal structure of human ACBD3 GOLD domain in complex with 3A protein of Aichivirus B
Biological Source:
Source Organism:
Homo sapiens (Taxon ID: 9606)
Aichivirus B (Taxon ID: 194965)
Host Organism:
Method Details:
Experimental Method:
Resolution:
2.60 Å
R-Value Free:
0.26
R-Value Work:
0.21
R-Value Observed:
0.21
Space Group:
P 31 2 1
Macromolecular Entities
Structures with similar UniProt ID
Protein Blast
Polymer Type:polypeptide(L)
Molecule:Golgi resident protein GCP60
Gene (Uniprot):ACBD3
Chain IDs:A
Chain Length:166
Number of Molecules:1
Biological Source:Homo sapiens
Structures with similar UniProt ID
Protein Blast
Polymer Type:polypeptide(L)
Molecule:3A
Chain IDs:B
Chain Length:38
Number of Molecules:1
Biological Source:Aichivirus B
Ligand Molecules
Primary Citation
Kobuviral Non-structural 3A Proteins Act as Molecular Harnesses to Hijack the Host ACBD3 Protein.
Structure 25 219 230 (2017)
PMID: 28065508 DOI: 10.1016/j.str.2016.11.021

Abstact

Picornaviruses are small positive-sense single-stranded RNA viruses that include many important human pathogens. Within the host cell, they replicate at specific replication sites called replication organelles. To create this membrane platform, they hijack several host factors including the acyl-CoA-binding domain-containing protein-3 (ACBD3). Here, we present a structural characterization of the molecular complexes formed by the non-structural 3A proteins from two species of the Kobuvirus genus of the Picornaviridae family and the 3A-binding domain of the host ACBD3 protein. Specifically, we present a series of crystal structures as well as a molecular dynamics simulation of the 3A:ACBD3 complex at the membrane, which reveals that the viral 3A proteins act as molecular harnesses to enslave the ACBD3 protein leading to its stabilization at target membranes. Our data provide a structural rationale for understanding how these viral-host protein complexes assemble at the atomic level and identify new potential targets for antiviral therapies.

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Primary Citation of related structures
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