2XKM image
Deposition Date 2010-07-09
Release Date 2010-11-24
Last Version Date 2023-12-20
Entry Detail
PDB ID:
2XKM
Keywords:
Title:
Consensus structure of Pf1 filamentous bacteriophage from X-ray fibre diffraction and solid-state NMR
Biological Source:
Source Organism:
Method Details:
Experimental Method:
Resolution:
3.30 Å
Space Group:
P 1
Macromolecular Entities
Polymer Type:polypeptide(L)
Molecule:CAPSID PROTEIN G8P
Gene (Uniprot):VIII
Chain IDs:A
Chain Length:46
Number of Molecules:1
Biological Source:PSEUDOMONAS PHAGE PF1
Ligand Molecules
Primary Citation
Consensus Structure of Pf1 Filamentous Bacteriophage from X-Ray Fibre Diffraction and Solid-State NMR.
Eur.Biophys.J. 40 221 ? (2011)
PMID: 21082179 DOI: 10.1007/S00249-010-0640-9

Abstact

Filamentous bacteriophages (filamentous bacterial viruses or Inovirus) are simple and well-characterised macromolecular assemblies that are widely used in molecular biology and biophysics, both as paradigms for studying basic biological questions and as practical tools in areas as diverse as immunology and solid-state physics. The strains fd, M13 and f1 are virtually identical filamentous phages that infect bacteria expressing F-pili, and are sometimes grouped as the Ff phages. For historical reasons fd has often been used for structural studies, but M13 and f1 are more often used for biological experiments. Many other strains have been identified that are genetically quite distinct from Ff and yet have a similar molecular structure and life cycle. One of these, Pf1, gives the highest resolution X-ray fibre diffraction patterns known for filamentous bacteriophage. These diffraction patterns have been used in the past to derive a molecular model for the structure of the phage. Solid-state NMR experiments have been used in separate studies to derive a significantly different model of Pf1. Here we combine previously published X-ray fibre diffraction data and solid-state NMR data to give a consensus structure model for Pf1 filamentous bacteriophage, and we discuss the implications of this model for assembly of the phage at the bacterial membrane.

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