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Buccutite™ Rapid PerCP Antibody Labeling Kit *Production Scale Optimized for Labeling 1 mg Antibody Per Reaction*

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Telephone1-800-990-8053
Fax1-800-609-2943
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Spectral properties
Correction Factor (280 nm)0.22
Extinction coefficient (cm -1 M -1)406000
Excitation (nm)477
Emission (nm)678
Storage, safety and handling
H-phraseH303, H313, H333
Hazard symbolXN
Intended useResearch Use Only (RUO)
R-phraseR20, R21, R22
UNSPSC12171501
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OverviewpdfSDSpdfProtocol


Correction Factor (280 nm)
0.22
Extinction coefficient (cm -1 M -1)
406000
Excitation (nm)
477
Emission (nm)
678
Buccutite™ Rapid PerCP Antibody Labeling Kits, designed for large-scale production, provide a streamlined approach for labeling antibodies with PerCP, APC, PE, and iFluor® tandem dyes. Compared to conventional protein-protein conjugation methods like the SMCC crosslinking technique, Buccutite™ conjugation is simple and more robust. Using a two-step mixing protocol, researchers can directly conjugate PerCP to any antibody or protein in less than 2 hours. Each Buccutite™ kit includes all the essential components for two labeling reactions and features a user-friendly, pre-packed spin column to maximize conjugate yield. Each Buccutite™ FOL-Activated PerCP vial provided in this kit is precisely formulated to label 1 mg of purified protein or antibody. Before labeling, it's important to remove stabilizing proteins like BSA from the sample and avoid using amine-rich buffers like Tris, which might disrupt the labeling process. PerCP is an intensely bright, red fluorescent phycobiliprotein with an excitation and emission maxima of ~477 nm and ~678 nm, respectively. With its large Stoke’s Shift and compatibility with blue laser excitation, PerCP forms an ideal combination with iFluor® 488 (or FITC) and PE for conducting one- to three-color analyses with just a single laser. PerCP conjugates are large complexes well-suited for cell surface labeling techniques, flow cytometry, spectral flow cytometry, and other immunoassays requiring high sensitivity but not photostability. With Buccuitte™ Rapid Antibody Labeling kits, researchers can directly label primary antibodies, eliminating the need for secondary antibodies and enhancing panel-building flexibility.

Components


Example protocol


AT A GLANCE

Key Parameters to Achieve Best Performance
  1. 1.0 mg Antibody (MW ~150 kDa)

  2. Antibody concentration: 2.0 mg/mL

  3. Antibody volume: 500 µL

PREPARATION OF WORKING SOLUTION

Important

Before opening the vials, warm all components and briefly centrifuge. Immediately prepare necessary solutions before starting conjugation. This protocol is a recommendation.

Prepare Antibody Solution
  1. Prepare a 500 µL antibody solution in PBS with a concentration of 2 mg/mL.

    Note: The protein should be dissolved in 1X phosphate-buffered saline (PBS), pH 7.2 - 7.4. If the protein is dissolved in buffers containing primary amines, like Tris and/or glycine, it must be dialyzed against 1X PBS, pH 7.2 - 7.4, or use Amicon Ultra0.5, Ultracel-10 Membrane, 10 kDa (Cat No. UFC501008 from Millipore) to remove free amines or ammonium salts (such as ammonium sulfate and ammonium acetate) that are widely used for protein precipitation.

    Note: Impure antibodies or antibodies stabilized with bovine serum albumin (BSA) or gelatin will not be labeled well.

Prepare Buccutite™ MTA Solution
  1. Warm up a vial of Buccutite™ MTA (Component B) to room temperature.

  2. Add 5 µL of DMSO (not provided) to the vial of Buccutite™ MTA (Component B), and mix well by pipetting.

SAMPLE EXPERIMENTAL PROTOCOL

Run Antibody-Buccutite™ MTA Reaction
  1. Add 25 µL of Reaction Buffer (Component C) to the antibody solution.

  2. Transfer 5 µL of the reconstituted Buccutite™ MTA DMSO solution into the vial of antibody solution, and mix well by pipetting.

  3. Rotate the reaction mixture at room temperature for 1 hour, then purify using a desalting column.

Purify Antibody-Buccutite™ MTA Solution with Desalting Column
  1. Invert the provided spin column (Component D) several times to re-suspend the settled gel and remove any bubbles.

  2. Snap off the tip and place the column in a washing tube (2 mL, not provided). Remove the cap to allow the excess packing buffer to drain by gravity to the top of the gel bed.

    Note: If the column does not begin to flow, push the cap back into the column and remove it again to start the flow. Discard the drained buffer, and then place the column back into the Washing Tube. 

  3. Centrifuge at 1000 x g for 2 minutes in a swinging bucket centrifuge to remove the packing buffer. Then discard the buffer. Refer to the 'Centrifugation Notes' section below for instructions.

  4. Apply 1-2 mL 1X PBS (pH 7.2-7.4) to the column. After each application of PBS, let the buffer drain out by gravity, or centrifuge the column for 2 minutes to remove the buffer. Discard the buffer from the collection tube. Repeat this process for 3-4 times.

  5. Centrifuge at 1000 x g for 2 minutes in a swinging bucket centrifuge to remove the packing buffer. Then discard the buffer. Refer to the 'Centrifugation Notes' section below for instructions.

  6. Place the column into a clean collecting tube (1.5 mL, not provided). Then, take the antibody-Buccutite™ MTA solution from step 3 of the "Run Antibody-Buccutite™ MTA Reaction" section and load it carefully and directly into the center of the column.

  7. After loading the sample, add 40 μL of 1X PBS (pH 7.2-7.4), centrifuge the column for 2 minutes at 1,000 x g, and collect the solution that contains the desired antibody-Buccutite™ MTA solution.

Run Antibody-PerCP Conjugation Reaction
  1. Warm up a vial of Buccutite™ FOL-Activated PerCP (Component A) to room temperature.

    Note: Each vial of Buccutite™ FOL-Activated PerCP contains an optimized amount of dye to label 1 mg of IgG (MW ~150 kDa) at 2 mg/mL in PBS, the kit can also be used to label other proteins (>10 kDa).

  2. Make a Buccutite™ FOL-Activated PerCP solution by adding 100 µL of ddH2O into the vial of Buccutite™ FOL-Activated PerCP (Component A), and mix well by pipetting or vortexing.

  3. Add the purified Antibody-Buccutite™ MTA solution directly into the vial of Buccutite™ FOL-Activated PerCP solution. Rotate the mixture for 1-2 hours at room temperature.

  4. The antibody-PerCP conjugate is now ready for immediate use or can be stored at 4°C.

Purification with Size Exclusion Chromatography Recommended
  1. For optimal performance, it is recommended to purify the antibody-PerCP conjugate using size exclusion chromatography (SEC). The following SEC columns are suitable for this purpose: Superdex 200 Increase 100/300 GL (Cytiva) and ENrich™ SEC 650 10 x 300 Column (Bio-Rad).

Spectrum


Open in Advanced Spectrum Viewer
spectrum

Spectral properties

Correction Factor (280 nm)0.22
Extinction coefficient (cm -1 M -1)406000
Excitation (nm)477
Emission (nm)678

References


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Authors: Miatello, Jordi and Faivre, Valérie and Marais, Clémence and Raineau, Mégane and Payen, Didier and Tissieres, Pierre
Journal: Cytometry. Part B, Clinical cytometry (2023)
Development of constrictional microchannels and the recurrent neural network in single-cell protein analysis.
Authors: Zhang, Ting and Chen, Xiao and Chen, Deyong and Wang, Junbo and Chen, Jian
Journal: Frontiers in bioengineering and biotechnology (2023): 1195940
Recombinant thrombomodulin attenuates hyper-inflammation and glycocalyx damage in a murine model of Streptococcus pneumoniae-induced sepsis.
Authors: Watanabe, Eizo and Akamatsu, Toshinobu and Ohmori, Masaaki and Kato, Mayu and Takeuchi, Noriko and Ishiwada, Naruhiko and Nishimura, Rintaro and Hishiki, Haruka and Fujimura, Lisa and Ito, Chizuru and Hatano, Masahiko
Journal: Cytokine (2022): 155723
Routine flow cytometry approach for the evaluation of solid tumor neoplasms and immune cells in minimally invasive samples.
Authors: Quirós-Caso, Covadonga and Arias Fernández, Tamara and Fonseca-Mourelle, Ariana and Torres, Héctor and Fernández, Luis and Moreno-Rodríguez, Maria and Ariza-Prota, Miguel Ángel and López-González, Francisco Julián and Carvajal-Álvarez, Miguel and Alonso-Álvarez, Sara and Moro-García, Marco Antonio and Colado, Enrique
Journal: Cytometry. Part B, Clinical cytometry (2022)
Separation of Immune Cell Subpopulations in Peripheral Blood Samples from Children with Infectious Mononucleosis.
Authors: Zhang, Linlin and Liu, Mengjia and Zhang, Meng and Ai, Junhong and Tian, Jiao and Wang, Ran and Xie, Zhengde
Journal: Journal of visualized experiments : JoVE (2022)
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Authors: Gatti, Arianna and Buccisano, Francesco and Scupoli, Maria T and Brando, Bruno
Journal: Cytometry. Part B, Clinical cytometry (2021): 194-205
Optimization of stimulation and staining conditions for intracellular cytokine staining (ICS) for determination of cytokine-producing T cells and monocytes.
Authors: Mandala, Wilson and Harawa, Visopo and Munyenyembe, Alinane and Soko, Monica and Longwe, Herbert
Journal: Current research in immunology (2021): 184-193
Identification of circulating cells interacted with integrin α4β1 ligand peptides REDV or HGGVRLY.
Authors: Hsu, Yu-I and Mahara, Atsushi and Yamaoka, Tetsuji
Journal: Peptides (2021): 170470
Phenotypically defined subpopulations of circulating follicular helper T cells in common variable immunodeficiency.
Authors: Yesillik, Sait and Gupta, Sudhir
Journal: Immunity, inflammation and disease (2020): 441-446
Comparison of minimal residual disease detection in multiple myeloma by SRL 8-color single-tube and EuroFlow 8-color 2-tube multiparameter flow cytometry.
Authors: Takamatsu, Hiroyuki and Yoroidaka, Takeshi and Fujisawa, Momoko and Kobori, Kazuya and Hanawa, Masako and Yamashita, Takeshi and Murata, Ryoichi and Ueda, Mikio and Nakao, Shinji and Matsue, Kosei
Journal: International journal of hematology (2019): 377-381