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    OriginLab corp graph of percent csltp1–ans complex fluorescence
    Graph Of Percent Csltp1–Ans Complex Fluorescence, supplied by OriginLab corp, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
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    Average 90 stars, based on 1 article reviews
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    a Phosphate slows the labeling of ADP-actin filaments with N-(1-pyrene)iodoacetamide. Solutions of Mg-ADP-actin filaments were polymerized from 5 µM monomers overnight at 4 °C in 100 mM KCl; 1 mM MgCl 2 ; 10 mM imidazole, pH 7.0; 0.3 mM ADP; 3 mM NaN 3 and preincubated at room temperature with the same volume of either water, 20 mM potassium phosphate or 20 mM potassium sulfate before adding 50 µM N-(1-pyrene)iodoacetamide. The basal <t>fluorescence</t> is from the free N-(1-pyrene)iodoacetamide, and the fluorescence increase is due to the conjugation of N-(1-pyrene)iodoacetamide to the sidechain of C374 in actin filaments. b Effect of phosphate in the buffer on the fluorescence of Mg-ADP-pyrenyl-actin filaments. The fluorescence change in each data point was calculated by subtracting the fluorescence of 120 µL of Mg-ADP-pyrenyl-actin filaments (polymerized from 5 µM monomers) preincubated with 30 µL of water from the fluorescence of 120 µL of Mg-ADP-pyrenyl-actin filaments (polymerized from 5 µM monomers) preincubated with the same volume of phosphate or sulfate. Each sample was incubated for ~1 hour before the measurements. Error bars indicate the standard deviations of five readings on the same sample. The Y-axes are in arbitrary units (A.U.). Data are presented as mean values +/− SD. Source data are provided as a Source Data file.
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    A) Photobleaching of Kif18A-GFP in a metaphase HeLa cell. Irradiation was targeted to the indicated region (dashed yellow line). Enlarged images show K-MT plus-end <t>fluorescence</t> before and after photobleaching. Time is indicated in seconds and is relative to irradiation. Scale bars, 10 µm and 2 µm (enlarged images). B) Kinetics of Kif18A-GFP fluorescence recovery at a K-MT plus-end. A representative plot of normalized Kif18A-GFP fluorescence at a single kinetochore against time is shown. The recovery of Kif18A-GFP at K-MT plus-ends fit a single exponential (black line). C) Taxol causes equatorial enrichment of Kif18A-GFP. Still images from a video of a HeLa cell stably expressing Kif18A-GFP treated with 10 µM taxol. Time is indicated in min and is relative to taxol addition. Scale bar, 10 µm. D) Kif18A is enriched at kinetochores in taxol-treated HeLa cells. The localizations of endogenous Kif18A (red) and kinetochores (green) in a control HeLa cell or in a cell treated with 10 µM taxol for 15 min are shown. Insets are higher magnification views of the boxed regions. Scale bars, 10 µm and 1 µm (enlarged images). E) Photobleaching of Kif18A-GFP in a taxol-treated metaphase HeLa cell. Time is indicated in seconds and is relative to irradiation. Scale bars, 10 µm and 2 µm (enlarged images). F) Kinetics of Kif18A-GFP fluorescence recovery at a K-MT plus-end in a cell treated with 10 µM taxol. A representative plot of normalized Kif18A-GFP fluorescence at a single kinetochore against time is shown.
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    Image Search Results


    a Phosphate slows the labeling of ADP-actin filaments with N-(1-pyrene)iodoacetamide. Solutions of Mg-ADP-actin filaments were polymerized from 5 µM monomers overnight at 4 °C in 100 mM KCl; 1 mM MgCl 2 ; 10 mM imidazole, pH 7.0; 0.3 mM ADP; 3 mM NaN 3 and preincubated at room temperature with the same volume of either water, 20 mM potassium phosphate or 20 mM potassium sulfate before adding 50 µM N-(1-pyrene)iodoacetamide. The basal fluorescence is from the free N-(1-pyrene)iodoacetamide, and the fluorescence increase is due to the conjugation of N-(1-pyrene)iodoacetamide to the sidechain of C374 in actin filaments. b Effect of phosphate in the buffer on the fluorescence of Mg-ADP-pyrenyl-actin filaments. The fluorescence change in each data point was calculated by subtracting the fluorescence of 120 µL of Mg-ADP-pyrenyl-actin filaments (polymerized from 5 µM monomers) preincubated with 30 µL of water from the fluorescence of 120 µL of Mg-ADP-pyrenyl-actin filaments (polymerized from 5 µM monomers) preincubated with the same volume of phosphate or sulfate. Each sample was incubated for ~1 hour before the measurements. Error bars indicate the standard deviations of five readings on the same sample. The Y-axes are in arbitrary units (A.U.). Data are presented as mean values +/− SD. Source data are provided as a Source Data file.

    Journal: Nature Communications

    Article Title: Cryo-electron microscopy structures of pyrene-labeled ADP-P i - and ADP-actin filaments

    doi: 10.1038/s41467-020-19762-1

    Figure Lengend Snippet: a Phosphate slows the labeling of ADP-actin filaments with N-(1-pyrene)iodoacetamide. Solutions of Mg-ADP-actin filaments were polymerized from 5 µM monomers overnight at 4 °C in 100 mM KCl; 1 mM MgCl 2 ; 10 mM imidazole, pH 7.0; 0.3 mM ADP; 3 mM NaN 3 and preincubated at room temperature with the same volume of either water, 20 mM potassium phosphate or 20 mM potassium sulfate before adding 50 µM N-(1-pyrene)iodoacetamide. The basal fluorescence is from the free N-(1-pyrene)iodoacetamide, and the fluorescence increase is due to the conjugation of N-(1-pyrene)iodoacetamide to the sidechain of C374 in actin filaments. b Effect of phosphate in the buffer on the fluorescence of Mg-ADP-pyrenyl-actin filaments. The fluorescence change in each data point was calculated by subtracting the fluorescence of 120 µL of Mg-ADP-pyrenyl-actin filaments (polymerized from 5 µM monomers) preincubated with 30 µL of water from the fluorescence of 120 µL of Mg-ADP-pyrenyl-actin filaments (polymerized from 5 µM monomers) preincubated with the same volume of phosphate or sulfate. Each sample was incubated for ~1 hour before the measurements. Error bars indicate the standard deviations of five readings on the same sample. The Y-axes are in arbitrary units (A.U.). Data are presented as mean values +/− SD. Source data are provided as a Source Data file.

    Article Snippet: The fluorescence graphs (Fig. ) were plotted with OriginLab.

    Techniques: Labeling, Fluorescence, Conjugation Assay, Incubation

    A) Photobleaching of Kif18A-GFP in a metaphase HeLa cell. Irradiation was targeted to the indicated region (dashed yellow line). Enlarged images show K-MT plus-end fluorescence before and after photobleaching. Time is indicated in seconds and is relative to irradiation. Scale bars, 10 µm and 2 µm (enlarged images). B) Kinetics of Kif18A-GFP fluorescence recovery at a K-MT plus-end. A representative plot of normalized Kif18A-GFP fluorescence at a single kinetochore against time is shown. The recovery of Kif18A-GFP at K-MT plus-ends fit a single exponential (black line). C) Taxol causes equatorial enrichment of Kif18A-GFP. Still images from a video of a HeLa cell stably expressing Kif18A-GFP treated with 10 µM taxol. Time is indicated in min and is relative to taxol addition. Scale bar, 10 µm. D) Kif18A is enriched at kinetochores in taxol-treated HeLa cells. The localizations of endogenous Kif18A (red) and kinetochores (green) in a control HeLa cell or in a cell treated with 10 µM taxol for 15 min are shown. Insets are higher magnification views of the boxed regions. Scale bars, 10 µm and 1 µm (enlarged images). E) Photobleaching of Kif18A-GFP in a taxol-treated metaphase HeLa cell. Time is indicated in seconds and is relative to irradiation. Scale bars, 10 µm and 2 µm (enlarged images). F) Kinetics of Kif18A-GFP fluorescence recovery at a K-MT plus-end in a cell treated with 10 µM taxol. A representative plot of normalized Kif18A-GFP fluorescence at a single kinetochore against time is shown.

    Journal: Molecular cell

    Article Title: A tethering mechanism controls the processivity and kinetochore-microtubule plus-end enrichment of the kinesin-8 Kif18A

    doi: 10.1016/j.molcel.2011.07.022

    Figure Lengend Snippet: A) Photobleaching of Kif18A-GFP in a metaphase HeLa cell. Irradiation was targeted to the indicated region (dashed yellow line). Enlarged images show K-MT plus-end fluorescence before and after photobleaching. Time is indicated in seconds and is relative to irradiation. Scale bars, 10 µm and 2 µm (enlarged images). B) Kinetics of Kif18A-GFP fluorescence recovery at a K-MT plus-end. A representative plot of normalized Kif18A-GFP fluorescence at a single kinetochore against time is shown. The recovery of Kif18A-GFP at K-MT plus-ends fit a single exponential (black line). C) Taxol causes equatorial enrichment of Kif18A-GFP. Still images from a video of a HeLa cell stably expressing Kif18A-GFP treated with 10 µM taxol. Time is indicated in min and is relative to taxol addition. Scale bar, 10 µm. D) Kif18A is enriched at kinetochores in taxol-treated HeLa cells. The localizations of endogenous Kif18A (red) and kinetochores (green) in a control HeLa cell or in a cell treated with 10 µM taxol for 15 min are shown. Insets are higher magnification views of the boxed regions. Scale bars, 10 µm and 1 µm (enlarged images). E) Photobleaching of Kif18A-GFP in a taxol-treated metaphase HeLa cell. Time is indicated in seconds and is relative to irradiation. Scale bars, 10 µm and 2 µm (enlarged images). F) Kinetics of Kif18A-GFP fluorescence recovery at a K-MT plus-end in a cell treated with 10 µM taxol. A representative plot of normalized Kif18A-GFP fluorescence at a single kinetochore against time is shown.

    Article Snippet: Graphs of fluorescence intensities versus time were generated in SigmaPlot (Systat Software), and the resulting data fit to a single exponential, F t =F 0 +F inf *(1-e −kt ), essentially as described ( Howell et al., 2000 ).

    Techniques: Irradiation, Fluorescence, Stable Transfection, Expressing, Control

    A) Metaphase localization of Kif18A truncation mutants. The localizations of full-length GFP-Kif18A, GFP-Kif18A-N406, Kif18A-N480-GFP, and GFP-Kif18A-C307 in cells co-stained for tubulin (red) and Hec1 (blue) are shown. Scale bar, 5 µm. B) The C-terminal tail domain of Kif18A is required for the motor to accumulate at K-MT plus-ends. Representative linescans showing the distribution of Kif18A (green) along metaphase K-MTs (red) near the kinetochore (Hec1 peak, blue). C) The tail domain of Kif18A increases the dwell time of the motor on spindle MTs. Still images from photoconversion runs of tdEOS-Kif18A-FL and Kif18A-N480-tdEOS are shown. An image of fluorescence from the GFP channel is shown at moment of photoconversion (t=0). Regions that were photoconverted and subjected to analysis are outlined. Time is indicated in sec and is relative to the time of photoconversion. Scale bar, 10 µm. D) Decay kinetics of tdEOS-Kif18A-FL (blue) and Kif18A-N480-tdEOS (pink) fluorescence from the mitotic spindle. Normalized mean fluorescence of photoconverted tdEOS-Kif18A-FL (n=8) and Kif18A-N480-tdEOS (n=11) versus time in sec are shown. Asterisks denote time points corresponding to the final images shown in Figure 2C. Black lines represent fits of the data to single exponentials. Error bars represent SEM.

    Journal: Molecular cell

    Article Title: A tethering mechanism controls the processivity and kinetochore-microtubule plus-end enrichment of the kinesin-8 Kif18A

    doi: 10.1016/j.molcel.2011.07.022

    Figure Lengend Snippet: A) Metaphase localization of Kif18A truncation mutants. The localizations of full-length GFP-Kif18A, GFP-Kif18A-N406, Kif18A-N480-GFP, and GFP-Kif18A-C307 in cells co-stained for tubulin (red) and Hec1 (blue) are shown. Scale bar, 5 µm. B) The C-terminal tail domain of Kif18A is required for the motor to accumulate at K-MT plus-ends. Representative linescans showing the distribution of Kif18A (green) along metaphase K-MTs (red) near the kinetochore (Hec1 peak, blue). C) The tail domain of Kif18A increases the dwell time of the motor on spindle MTs. Still images from photoconversion runs of tdEOS-Kif18A-FL and Kif18A-N480-tdEOS are shown. An image of fluorescence from the GFP channel is shown at moment of photoconversion (t=0). Regions that were photoconverted and subjected to analysis are outlined. Time is indicated in sec and is relative to the time of photoconversion. Scale bar, 10 µm. D) Decay kinetics of tdEOS-Kif18A-FL (blue) and Kif18A-N480-tdEOS (pink) fluorescence from the mitotic spindle. Normalized mean fluorescence of photoconverted tdEOS-Kif18A-FL (n=8) and Kif18A-N480-tdEOS (n=11) versus time in sec are shown. Asterisks denote time points corresponding to the final images shown in Figure 2C. Black lines represent fits of the data to single exponentials. Error bars represent SEM.

    Article Snippet: Graphs of fluorescence intensities versus time were generated in SigmaPlot (Systat Software), and the resulting data fit to a single exponential, F t =F 0 +F inf *(1-e −kt ), essentially as described ( Howell et al., 2000 ).

    Techniques: Staining, Fluorescence