Overview |
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Ex/Em (nm) | 628/643 |
MW | ~600 |
CAS # | N/A |
Solvent | DMSO |
Storage | F/D/L |
Category |
Cell Biology Labeling Cells |
Related |
Fluorescence Imaging Viability and Proliferation Biochemical Assays |
Spectrum | Advanced Spectrum Viewer |
1. Prepare 500 X DMSO stock solution
Add 500 µL DMSO into the dye powder vial, mix it well by vortexing to have a 500X DMSO stock solution
Note: The stock solution should be used promptly; any remaining solution should be aliquoted and frozen at < -20 oC. Avoid repeated freeze-thaw cycles, and protect from light.
2. Prepare 1X dye working solution
Prepare a 1X dye working solution by diluting the 500X DMSO stock solution at 1 to 500 in Hanks and 20 mM Hepes buffer (HHBS) or the buffer of your choice, pH 7 (such as 1 µL of 500X DMSO stock solution to 500 µL buffer) right before use. Mix them well by vortexing.
Note: The final concentration of the dye working solution should be empirically determined for different cell types and/or experimental conditions. It is recommended to test at the concentrations that are at least over a t en fold range. Such as CytoTell™ Red might use much less amount in some cell types than the recommend concentrations.
3. Analyze cells with a flow cytometer or a fluorescence microscope:
3.1 Treat cells with test compounds for a desired period of time.
3.2 Centrifuge the cells to get 1-5 × 105 cells per tube.
3.3 Resuspend cells in 500 μL of the dye working solution (from Step 2).
Optional: One can add the 500X DMSO stock solution into the cells directly without medium removing (such as, add 1 µL500X DMSO stock solution into 500 µL cells)
3.4 Incubate cells with a dye solution at room temperature or 37 °C for 10 to 30 min, protected from light.
3.5 Remove the dye working solution from the cells, wash the cells with HHBS or buffer of your choice. Resuspend cells in 500 μL of pre-warmed HHBS or medium to get 1-5 × 105 cells per tube.
3.6 Monitor the fluorescence change at respected Ex/Em (see Table 1) with a flow cytometer or a fluorescence microscope.
References & Citations |
Citation Explorer
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Cooperation of innate immune cells during Hepatitis C virus infection
Authors: Volker Klöss
Journal: (2017)
CXCL12--CXCR4 Axis Is Required for Contact-Mediated Human B Lymphoid and Plasmacytoid Dendritic Cell Differentiation but Not T Lymphoid Generation
Authors: Hirohito Minami, Keiki Nagaharu, Yoshiki Nakamori, Kohshi Ohishi, Naoshi Shimojo, Yuki Kageyama, Takeshi Matsumoto, Yuka Sugimoto, Isao Tawara, Masahiro Masuya
Journal: The Journal of Immunology (2017): ji1700054
Interaction and Mutual Activation of Different Innate Immune Cells Is Necessary to Kill and Clear Hepatitis C Virus-Infected Cells
Authors: Volker Klöss, Oliver Grünvogel, Guido Wabnitz, Tatjana Eigenbrod, Stefanie Ehrhardt, Felix Lasitschka, Volker Lohmann, Alexander H Dalpke
Journal: Frontiers in Immunology (2017): 1238
interaction and Mutual activation of Different innate immune cells is necessary to Kill and clear hepatitis c Virus-infected cells
Authors: Volker Klöss, Oliver Grünvogel, Guido Wabnitz, Tatjana Eigenbrod, Stefanie Ehrhardt, Felix Lasitschka, Volker Lohmann, Alexander H Dalpke
Journal: Frontiers in Immunology (2017): 1238
Onionin A inhibits ovarian cancer progression by suppressing cancer cell proliferation and the protumour function of macrophages
Authors: Junko Tsuboki, Yukio Fujiwara, Hasita Horlad, Daisuke Shiraishi, Toshihiro Nohara, Shingo Tayama, Takeshi Motohara, Yoichi Saito, Tsuyoshi Ikeda, Kiyomi Takaishi
Journal: Scientific Reports (2016)
Multiplexing analysis of cell proliferation and cellular functions using a new multicolor panel of fluorescent cell proliferation dyes (P1290)
Authors: Jinfang Liao, Qin Zhao, Yibo Wu, Zhenjun Diwu
Journal: The Journal of Immunology (2013): 119--4