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b512  (Novus Biologicals)


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    Structured Review

    Novus Biologicals b512
    B512, supplied by Novus Biologicals, used in various techniques. Bioz Stars score: 92/100, based on 5 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
    https://www.bioz.com/product/b512/pmc11084827-230-26-28?v=Novus+Biologicals
    Average 92 stars, based on 5 article reviews
    b512 - by Bioz Stars, 2026-07
    92/100 stars

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    Millipore mouse monoclonal α-tubulin (igg1, b512
    Simultaneous two-color DNA-PAINT (S2C-DNA-PAINT) and crosstalk evaluation (A) In S2C-DNA-PAINT, blinking events appear only on either one camera or the other (left panels): fluorophores emitting in the red (here Cy3B, orange curve on top right spectra graph) and far-red (here Atto643, red curve) are separated by the 662-nm cutoff dichroic mirror (gray line). Ratiometric analysis (bottom right graph) shows fluorophores appearing on only one camera, leading to the chosen ratio ranges (orange and red colored areas): 0.00–0.01 for Cy3B and 0.99–1.0 for Atto643, used in (B), (C), and (D). (B) Crosstalk measurement from nanorulers (40-nm and 80-nm spacing) bearing P1 and P3 docking strands using I1-Atto655 and I3-Cy3B imager strands. Nanorulers were classified by total length (top distributions, peaks at 80 and 160 nm) before determining the crosstalk (see <xref ref-type=Figure S2 D). (C) Crosstalk measurement from a single-target cellular sample: zoomed image of a COS-7 cell labeled for microtubules with a secondary antibody carrying an F1 docking strand. Acquisition A (top, left column) uses a mixture of non-target (IF2) imager strands to measure the background signal in both channels (see Figure S3 ). Acquisition B (top, right column) is done over the same field of view with a mixture of a target (IF1-Cy3B) and a non-target (IF2-Atto643) imager strands. An ROI enclosing the microtubule network (bottom row, white is an ROI overlay on the background images) is obtained from the target (IF1-Cy3B) image and used to measure the number of localizations for acquisitions A and B in both channels (middle graph). The crosstalk from Cy3B into Atto643 is based on the difference between the number of localizations in acquisition B, channel 2 (right red bar) and the number of localizations in acquisition A, ch2 (left red bar). Conversely, the crosstalk of Atto643 into Cy3B can be measured using a target IF2-Cy3B acquisition, evaluating the difference induced in ch1 between acquisition A and B (orange bars in bottom graph). (D) Crosstalk measurement from a two-target cellular sample: COS-7 cells labeled for tubulin (F1 docking strand) and clathrin (F2 docking strand), simultaneously imaged with IF1-Atto643 and IF2-Atto565. Insets show zoomed isolated channels. Crosstalk was calculated from exclusive ROIs containing only microtubules or only clathrin-coated pits excluding overlapping areas. (E) Crosstalk values obtained from the three different approaches, grouped by crosstalk direction (far-red into red on the left, orange; red into far-red on the right, red): nanorulers (B), single-target cellular sample (C), and two-target cellular sample (D). Points correspond to individual images or datapoints, error bars are SEM. " width="250" height="auto" />
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    Image Search Results


    Simultaneous two-color DNA-PAINT (S2C-DNA-PAINT) and crosstalk evaluation (A) In S2C-DNA-PAINT, blinking events appear only on either one camera or the other (left panels): fluorophores emitting in the red (here Cy3B, orange curve on top right spectra graph) and far-red (here Atto643, red curve) are separated by the 662-nm cutoff dichroic mirror (gray line). Ratiometric analysis (bottom right graph) shows fluorophores appearing on only one camera, leading to the chosen ratio ranges (orange and red colored areas): 0.00–0.01 for Cy3B and 0.99–1.0 for Atto643, used in (B), (C), and (D). (B) Crosstalk measurement from nanorulers (40-nm and 80-nm spacing) bearing P1 and P3 docking strands using I1-Atto655 and I3-Cy3B imager strands. Nanorulers were classified by total length (top distributions, peaks at 80 and 160 nm) before determining the crosstalk (see <xref ref-type=Figure S2 D). (C) Crosstalk measurement from a single-target cellular sample: zoomed image of a COS-7 cell labeled for microtubules with a secondary antibody carrying an F1 docking strand. Acquisition A (top, left column) uses a mixture of non-target (IF2) imager strands to measure the background signal in both channels (see Figure S3 ). Acquisition B (top, right column) is done over the same field of view with a mixture of a target (IF1-Cy3B) and a non-target (IF2-Atto643) imager strands. An ROI enclosing the microtubule network (bottom row, white is an ROI overlay on the background images) is obtained from the target (IF1-Cy3B) image and used to measure the number of localizations for acquisitions A and B in both channels (middle graph). The crosstalk from Cy3B into Atto643 is based on the difference between the number of localizations in acquisition B, channel 2 (right red bar) and the number of localizations in acquisition A, ch2 (left red bar). Conversely, the crosstalk of Atto643 into Cy3B can be measured using a target IF2-Cy3B acquisition, evaluating the difference induced in ch1 between acquisition A and B (orange bars in bottom graph). (D) Crosstalk measurement from a two-target cellular sample: COS-7 cells labeled for tubulin (F1 docking strand) and clathrin (F2 docking strand), simultaneously imaged with IF1-Atto643 and IF2-Atto565. Insets show zoomed isolated channels. Crosstalk was calculated from exclusive ROIs containing only microtubules or only clathrin-coated pits excluding overlapping areas. (E) Crosstalk values obtained from the three different approaches, grouped by crosstalk direction (far-red into red on the left, orange; red into far-red on the right, red): nanorulers (B), single-target cellular sample (C), and two-target cellular sample (D). Points correspond to individual images or datapoints, error bars are SEM. " width="100%" height="100%">

    Journal: Cell Reports Methods

    Article Title: Assessing crosstalk in simultaneous multicolor single-molecule localization microscopy

    doi: 10.1016/j.crmeth.2023.100571

    Figure Lengend Snippet: Simultaneous two-color DNA-PAINT (S2C-DNA-PAINT) and crosstalk evaluation (A) In S2C-DNA-PAINT, blinking events appear only on either one camera or the other (left panels): fluorophores emitting in the red (here Cy3B, orange curve on top right spectra graph) and far-red (here Atto643, red curve) are separated by the 662-nm cutoff dichroic mirror (gray line). Ratiometric analysis (bottom right graph) shows fluorophores appearing on only one camera, leading to the chosen ratio ranges (orange and red colored areas): 0.00–0.01 for Cy3B and 0.99–1.0 for Atto643, used in (B), (C), and (D). (B) Crosstalk measurement from nanorulers (40-nm and 80-nm spacing) bearing P1 and P3 docking strands using I1-Atto655 and I3-Cy3B imager strands. Nanorulers were classified by total length (top distributions, peaks at 80 and 160 nm) before determining the crosstalk (see Figure S2 D). (C) Crosstalk measurement from a single-target cellular sample: zoomed image of a COS-7 cell labeled for microtubules with a secondary antibody carrying an F1 docking strand. Acquisition A (top, left column) uses a mixture of non-target (IF2) imager strands to measure the background signal in both channels (see Figure S3 ). Acquisition B (top, right column) is done over the same field of view with a mixture of a target (IF1-Cy3B) and a non-target (IF2-Atto643) imager strands. An ROI enclosing the microtubule network (bottom row, white is an ROI overlay on the background images) is obtained from the target (IF1-Cy3B) image and used to measure the number of localizations for acquisitions A and B in both channels (middle graph). The crosstalk from Cy3B into Atto643 is based on the difference between the number of localizations in acquisition B, channel 2 (right red bar) and the number of localizations in acquisition A, ch2 (left red bar). Conversely, the crosstalk of Atto643 into Cy3B can be measured using a target IF2-Cy3B acquisition, evaluating the difference induced in ch1 between acquisition A and B (orange bars in bottom graph). (D) Crosstalk measurement from a two-target cellular sample: COS-7 cells labeled for tubulin (F1 docking strand) and clathrin (F2 docking strand), simultaneously imaged with IF1-Atto643 and IF2-Atto565. Insets show zoomed isolated channels. Crosstalk was calculated from exclusive ROIs containing only microtubules or only clathrin-coated pits excluding overlapping areas. (E) Crosstalk values obtained from the three different approaches, grouped by crosstalk direction (far-red into red on the left, orange; red into far-red on the right, red): nanorulers (B), single-target cellular sample (C), and two-target cellular sample (D). Points correspond to individual images or datapoints, error bars are SEM.

    Article Snippet: Mouse monoclonal α-tubulin (IgG1, B512) , Sigma , T5168; RRID: AB_477579.

    Techniques: Labeling, Isolation

    Spectral demixing STORM (SD-dSTORM) and crosstalk evaluation (A) In SD-dSTORM, blinking events from two far-red fluorophores (AF647 and CF680) appear on both cameras (left panels) due to their spectral proximity (top right graph). Ratiometric analysis of photon ratios for blinking events from each fluorophore leads to a 0.01–0.38 range for AF647 (yellow area), and 0.42–0.99 for CF680 (blue area), used in (B), (C), and (D). (B) Crosstalk measurement from nanorulers (40-nm and 80-nm spacing) bearing P1 and P3 docking strands and imaged with I1-Atto680 and I3-655 imager strands. Nanorulers were classified by total length (top distribution, peaks 80 and 160 nm) before determining the crosstalk. (C) Crosstalk measurement from a single-target cellular sample: COS-7 cells labeled for microtubules with a secondary antibody conjugated to either AF647 or CF680 with ratiometric analysis of the localizations (top). After demixing (yellow and blue areas), images were reconstructed (bottom panels). ROIs were drawn around the microtubules with an intensity threshold and used on both channels to calculate the crosstalk. (D) Crosstalk measurement from a two-target cellular sample: COS cells labeled for tubulin with AF647 and for clathrin with CF680. Insets show zoomed isolated channels. Crosstalk was calculated from exclusive ROIs containing only microtubules or only clathrin-coated pits excluding overlapping areas. (E) Crosstalk values obtained from the three different approaches, grouped by crosstalk direction (far-red into red on the left, orange; red into far-red on the right, red): nanorulers (see B), single-target cellular sample (C), and two-target cellular sample (D). Points correspond to individual images or datapoints, error bars are SEM.

    Journal: Cell Reports Methods

    Article Title: Assessing crosstalk in simultaneous multicolor single-molecule localization microscopy

    doi: 10.1016/j.crmeth.2023.100571

    Figure Lengend Snippet: Spectral demixing STORM (SD-dSTORM) and crosstalk evaluation (A) In SD-dSTORM, blinking events from two far-red fluorophores (AF647 and CF680) appear on both cameras (left panels) due to their spectral proximity (top right graph). Ratiometric analysis of photon ratios for blinking events from each fluorophore leads to a 0.01–0.38 range for AF647 (yellow area), and 0.42–0.99 for CF680 (blue area), used in (B), (C), and (D). (B) Crosstalk measurement from nanorulers (40-nm and 80-nm spacing) bearing P1 and P3 docking strands and imaged with I1-Atto680 and I3-655 imager strands. Nanorulers were classified by total length (top distribution, peaks 80 and 160 nm) before determining the crosstalk. (C) Crosstalk measurement from a single-target cellular sample: COS-7 cells labeled for microtubules with a secondary antibody conjugated to either AF647 or CF680 with ratiometric analysis of the localizations (top). After demixing (yellow and blue areas), images were reconstructed (bottom panels). ROIs were drawn around the microtubules with an intensity threshold and used on both channels to calculate the crosstalk. (D) Crosstalk measurement from a two-target cellular sample: COS cells labeled for tubulin with AF647 and for clathrin with CF680. Insets show zoomed isolated channels. Crosstalk was calculated from exclusive ROIs containing only microtubules or only clathrin-coated pits excluding overlapping areas. (E) Crosstalk values obtained from the three different approaches, grouped by crosstalk direction (far-red into red on the left, orange; red into far-red on the right, red): nanorulers (see B), single-target cellular sample (C), and two-target cellular sample (D). Points correspond to individual images or datapoints, error bars are SEM.

    Article Snippet: Mouse monoclonal α-tubulin (IgG1, B512) , Sigma , T5168; RRID: AB_477579.

    Techniques: Labeling, Isolation

    Extension of SD-dSTORM to three targets and crosstalk evaluation (A) Emission spectra of the fluorophores used for three-color SD-dSTORM: AF647 (yellow), CF660C (green), and CF680 (blue), and transmission of the 700-nm long-pass dichroic inserted in the detection pathway (gray). (B) Photon ratios for each fluorophore determined by ratiometric analysis from single-fluorophore-stained microtubules in COS-7 cells. Colored areas highlight the ratio ranges chosen for AF647 (0.01–0.29, yellow), CF660C (0.31–0.40, green), and CF680 (0.50–0.99, blue). (C) SD-dSTORM images of COS cells stained for microtubules using secondary antibodies conjugated to AF647 (yellow), CF660C (green), or CF680 (blue). ROIs segmented from the microtubule channel were used to measure the number of localizations in each channel and calculate the crosstalk between channels. (D) Three-channel SD-dSTORM image of a COS cell labeled for the endoplasmic reticulum (ER; AF647), clathrin (CF660C), and tubulin (CF680). Insets show zoomed isolated channels. (E) Photon ratios for each fluorophore from the three-channel acquisition in (D). Colored areas highlight the ratio ranges chosen to demix AF647 (0.01–0.30, yellow), CF660C (0.35–0.45, green), and CF680 (0.50–0.99, blue). (F) Crosstalk between the channels calculated from the single-fluorophore staining (C) and the three-target staining (D) cellular samples. For the three-target sample, exclusive ROIs were used to delineate regions containing one target, but not the two others. Points correspond to individual images or datapoints; error bars are SEM.

    Journal: Cell Reports Methods

    Article Title: Assessing crosstalk in simultaneous multicolor single-molecule localization microscopy

    doi: 10.1016/j.crmeth.2023.100571

    Figure Lengend Snippet: Extension of SD-dSTORM to three targets and crosstalk evaluation (A) Emission spectra of the fluorophores used for three-color SD-dSTORM: AF647 (yellow), CF660C (green), and CF680 (blue), and transmission of the 700-nm long-pass dichroic inserted in the detection pathway (gray). (B) Photon ratios for each fluorophore determined by ratiometric analysis from single-fluorophore-stained microtubules in COS-7 cells. Colored areas highlight the ratio ranges chosen for AF647 (0.01–0.29, yellow), CF660C (0.31–0.40, green), and CF680 (0.50–0.99, blue). (C) SD-dSTORM images of COS cells stained for microtubules using secondary antibodies conjugated to AF647 (yellow), CF660C (green), or CF680 (blue). ROIs segmented from the microtubule channel were used to measure the number of localizations in each channel and calculate the crosstalk between channels. (D) Three-channel SD-dSTORM image of a COS cell labeled for the endoplasmic reticulum (ER; AF647), clathrin (CF660C), and tubulin (CF680). Insets show zoomed isolated channels. (E) Photon ratios for each fluorophore from the three-channel acquisition in (D). Colored areas highlight the ratio ranges chosen to demix AF647 (0.01–0.30, yellow), CF660C (0.35–0.45, green), and CF680 (0.50–0.99, blue). (F) Crosstalk between the channels calculated from the single-fluorophore staining (C) and the three-target staining (D) cellular samples. For the three-target sample, exclusive ROIs were used to delineate regions containing one target, but not the two others. Points correspond to individual images or datapoints; error bars are SEM.

    Article Snippet: Mouse monoclonal α-tubulin (IgG1, B512) , Sigma , T5168; RRID: AB_477579.

    Techniques: Transmission Assay, Staining, Labeling, Isolation

    Extension of S2C-DNA-PAINT and SD-dSTORM to astigmatism-based 3D SMLM (A) 3D S2C-DNA-PAINT: image of a COS-7 cell labeled for clathrin and tubulin, imaged with IF2-Cy3B (orange) and IF1-Atto643 (red), respectively. Insets show zoomed isolated channels, color-coded for Z. (B) Distribution of the photon ratios for the acquisition in (A), with colored areas for the ratios chosen for demixing: 0–0.01 for Cy3B (orange), 0.99–1 for Atto643 (red). (C) Full-width half-maximum (FWHM) analysis of the average intensity profile for transverse section along three isolated microtubules in (A). Inset, average transverse section obtained after alignment of individual sections. (D) SD-dSTORM image of a COS-7 cell labeled for tubulin and clathrin, revealed with secondary antibodies conjugated to AF647 (yellow) and CF680 (cyan), respectively. Insets show zoomed isolated channels, color-coded for Z. (E) Distribution of the photon ratios for the acquisition in (A), with colored areas for the ratios chosen for demixing: 0.01–0.38 for AF647 (yellow area), 0.42–0.99 for CF680 (blue area). (F) FWHM analysis of the average intensity profile for transverse section along three isolated microtubules in (A). Inset, average transverse section obtained after alignment of individual sections.

    Journal: Cell Reports Methods

    Article Title: Assessing crosstalk in simultaneous multicolor single-molecule localization microscopy

    doi: 10.1016/j.crmeth.2023.100571

    Figure Lengend Snippet: Extension of S2C-DNA-PAINT and SD-dSTORM to astigmatism-based 3D SMLM (A) 3D S2C-DNA-PAINT: image of a COS-7 cell labeled for clathrin and tubulin, imaged with IF2-Cy3B (orange) and IF1-Atto643 (red), respectively. Insets show zoomed isolated channels, color-coded for Z. (B) Distribution of the photon ratios for the acquisition in (A), with colored areas for the ratios chosen for demixing: 0–0.01 for Cy3B (orange), 0.99–1 for Atto643 (red). (C) Full-width half-maximum (FWHM) analysis of the average intensity profile for transverse section along three isolated microtubules in (A). Inset, average transverse section obtained after alignment of individual sections. (D) SD-dSTORM image of a COS-7 cell labeled for tubulin and clathrin, revealed with secondary antibodies conjugated to AF647 (yellow) and CF680 (cyan), respectively. Insets show zoomed isolated channels, color-coded for Z. (E) Distribution of the photon ratios for the acquisition in (A), with colored areas for the ratios chosen for demixing: 0.01–0.38 for AF647 (yellow area), 0.42–0.99 for CF680 (blue area). (F) FWHM analysis of the average intensity profile for transverse section along three isolated microtubules in (A). Inset, average transverse section obtained after alignment of individual sections.

    Article Snippet: Mouse monoclonal α-tubulin (IgG1, B512) , Sigma , T5168; RRID: AB_477579.

    Techniques: Labeling, Isolation

    Journal: Cell Reports Methods

    Article Title: Assessing crosstalk in simultaneous multicolor single-molecule localization microscopy

    doi: 10.1016/j.crmeth.2023.100571

    Figure Lengend Snippet:

    Article Snippet: Mouse monoclonal α-tubulin (IgG1, B512) , Sigma , T5168; RRID: AB_477579.

    Techniques: Cell Culture, Software, Imaging