1HV2 image
Deposition Date 2001-01-05
Release Date 2001-09-06
Last Version Date 2024-05-22
Entry Detail
PDB ID:
1HV2
Title:
SOLUTION STRUCTURE OF YEAST ELONGIN C IN COMPLEX WITH A VON HIPPEL-LINDAU PEPTIDE
Biological Source:
Source Organism:
Host Organism:
Method Details:
Experimental Method:
Conformers Calculated:
100
Conformers Submitted:
20
Selection Criteria:
The submitted conformer models are the 20 structures with the lowest energy
Macromolecular Entities
Structures with similar UniProt ID
Protein Blast
Polymer Type:polypeptide(L)
Molecule:ELONGIN C
Gene (Uniprot):ELC1
Chain IDs:A
Chain Length:99
Number of Molecules:1
Biological Source:Saccharomyces cerevisiae
Structures with similar UniProt ID
Protein Blast
Polymer Type:polypeptide(L)
Molecule:VON HIPPEL-LINDAU DISEASE TUMOR SUPPRESSOR
Gene (Uniprot):Vhl
Chain IDs:B
Chain Length:15
Number of Molecules:1
Biological Source:
Ligand Molecules
Primary Citation
Solution structure and dynamics of yeast elongin C in complex with a von Hippel-Lindau peptide.
J.Mol.Biol. 312 177 186 (2001)
PMID: 11545595 DOI: 10.1006/jmbi.2001.4938

Abstact

Elongin is a transcription elongation factor that stimulates the rate of elongation by suppressing transient pausing by RNA polymerase II at many sites along the DNA. It is heterotrimeric in mammals, consisting of elongins A, B and C subunits, and bears overall similarity to a class of E3 ubiquitin ligases known as SCF (Skp1-Cdc53 (cullin)-F-box) complexes. A subcomplex of elongins B and C is a target for negative regulation by the von Hippel-Lindau (VHL) tumor-suppressor protein. Elongin C from Saccharomyces cerevisiae, Elc1, exhibits high sequence similarity to mammalian elongin C. Using NMR spectroscopy we have determined the three-dimensional structure of Elc1 in complex with a human VHL peptide, VHL(157-171), representing the major Elc1 binding site. The bound VHL peptide is entirely helical. Elc1 utilizes two C-terminal helices and an intervening loop to form a binding groove that fits VHL(157-171). Chemical shift perturbation and dynamics analyses reveal that a global conformational change accompanies Elc1/VHL(157-171) complex formation. Moreover, the disappearance of conformational exchange phenomena on the microsecond to millisecond time scale within Elc1 upon VHL peptide binding suggests a role for slow internal motions in ligand recognition.

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Primary Citation of related structures
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