Trace fluorescent labeling for protein crystallization

Fluorescence can be a powerful tool to aid in the crystallization of proteins. In the trace‐labeling approach, the protein is covalently derivatized with a high‐quantum‐yield visible‐wavelength fluorescent probe. The final probe concentration typically labels ≤0.20% of the protein molecules, which h...

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Veröffentlicht in:Acta crystallographica. Section F, Structural biology communications Structural biology communications, 2015-07, Vol.71 (7), p.806-814
Hauptverfasser: Pusey, Marc, Barcena, Jorge, Morris, Michelle, Singhal, Anuj, Yuan, Qunying, Ng, Joseph
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container_issue 7
container_start_page 806
container_title Acta crystallographica. Section F, Structural biology communications
container_volume 71
creator Pusey, Marc
Barcena, Jorge
Morris, Michelle
Singhal, Anuj
Yuan, Qunying
Ng, Joseph
description Fluorescence can be a powerful tool to aid in the crystallization of proteins. In the trace‐labeling approach, the protein is covalently derivatized with a high‐quantum‐yield visible‐wavelength fluorescent probe. The final probe concentration typically labels ≤0.20% of the protein molecules, which has been shown to not affect the crystal nucleation or diffraction quality. The labeled protein is then used in a plate‐screening experiment in the usual manner. As the most densely packed state of the protein is the crystalline form, then crystals show as the brightest objects in the well under fluorescent illumination. A study has been carried out on the effects of trace fluorescent labeling on the screening results obtained compared with nonlabeled protein, and it was found that considering the stochastic nature of the crystal nucleation process the presence of the probe did not affect the outcomes obtained. Other effects are realised when using fluorescence. Crystals are clearly seen even when buried in precipitate. This approach also finds `hidden' leads, in the form of bright spots, with ∼30% of the leads found being optimized to crystals in a single‐pass optimization trial. The use of visible fluorescence also enables the selection of colors that bypass interfering substances, and the screening materials do not have to be UV‐transparent.
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In the trace‐labeling approach, the protein is covalently derivatized with a high‐quantum‐yield visible‐wavelength fluorescent probe. The final probe concentration typically labels ≤0.20% of the protein molecules, which has been shown to not affect the crystal nucleation or diffraction quality. The labeled protein is then used in a plate‐screening experiment in the usual manner. As the most densely packed state of the protein is the crystalline form, then crystals show as the brightest objects in the well under fluorescent illumination. A study has been carried out on the effects of trace fluorescent labeling on the screening results obtained compared with nonlabeled protein, and it was found that considering the stochastic nature of the crystal nucleation process the presence of the probe did not affect the outcomes obtained. Other effects are realised when using fluorescence. Crystals are clearly seen even when buried in precipitate. 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subjects BYPASSES
COLOR
CONDENSED MATTER PHYSICS, SUPERCONDUCTIVITY AND SUPERFLUIDITY
CRYSTALLIZATION
Crystallization - methods
CRYSTALS
DIFFRACTION
FLUORESCENCE
Fluorescent Dyes - analysis
ILLUMINANCE
intensity
Labeling
Microscopy, Fluorescence - methods
MOLECULES
NUCLEATION
OPTIMIZATION
Plant Proteins - analysis
Plant Proteins - chemistry
PLATES
PROBES
Proteins
Proteins - analysis
Proteins - chemistry
SCREENING
Staining and Labeling - methods
trace fluorescence labeling
WAVELENGTHS
title Trace fluorescent labeling for protein crystallization
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