Single-molecule fluorescence polarization study of conformational change in archaeal group II chaperonin

Group II chaperonins found in archaea and in eukaryotic cytosol mediate protein folding without a GroES-like cofactor. The function of the cofactor is substituted by the helical protrusion at the tip of the apical domain, which forms a built-in lid on the central cavity. Although many studies on the...

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Veröffentlicht in:PloS one 2011-07, Vol.6 (7), p.e22253-e22253
Hauptverfasser: Iizuka, Ryo, Ueno, Taro, Morone, Nobuhiro, Funatsu, Takashi
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creator Iizuka, Ryo
Ueno, Taro
Morone, Nobuhiro
Funatsu, Takashi
description Group II chaperonins found in archaea and in eukaryotic cytosol mediate protein folding without a GroES-like cofactor. The function of the cofactor is substituted by the helical protrusion at the tip of the apical domain, which forms a built-in lid on the central cavity. Although many studies on the change in lid conformation coupled to the binding and hydrolysis of nucleotides have been conducted, the molecular mechanism of lid closure remains poorly understood. Here, we performed a single-molecule polarization modulation to probe the rotation of the helical protrusion of a chaperonin from a hyperthermophilic archaeum, Thermococcus sp. strain KS-1. We detected approximately 35° rotation of the helical protrusion immediately after photorelease of ATP. The result suggests that the conformational change from the open lid to the closed lid state is responsible for the approximately 35° rotation of the helical protrusion.
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subjects Adenosine triphosphate
Archaea
Archaeal Proteins - chemistry
Binding sites
Biology
Chaperonins
Crystal structure
Cytosol
Fluorescence
Fluorescence polarization
Group II Chaperonins - chemistry
Microscopy
Microscopy, Polarization
Models, Molecular
Molecular biology
Nucleotides
Pharmaceutical sciences
Polarization
Polarization modulation
Protein folding
Protein Structure, Secondary
Spectrum analysis
Thermococcus - metabolism
title Single-molecule fluorescence polarization study of conformational change in archaeal group II chaperonin
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