Cell Viability, Metabolism Assays and Biochemicals

Figure 1. Apoptotic tissues in murine tumor models were imaged in vivo with 747-VAD-FMK (cat. 9114). Negative control (placebo) mice (left) and experimentally treated mice (right) were injected intravenously with DyLight® 747-VAD-FMK tracer and imaged non-invasively at various time points with the CRi Maestro™ imaging system. Apoptotic tumor tissues fluoresce bright blue in the experimental group subjects, indicating that the experimental treatment had an apoptotic effect.

ImmunoChemistry Technologies Near-Infrared DyLight® 747 Tracer in vivo Active Caspase (VAD) Assay

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Figure 1. Brain abscesses were induced in mice following inoculation of live S. aureus. Mice received i.v. injections of DyLight® 690-VAD-FMK tracer or DyLight® 690 Dye Control (cat. 9113) 17 hours post-infection; brain tissue was imaged 1 hour later ex vivo using an IVIS® Spectrum™ (Caliper Life Sciences). Strong caspase activity was seen in brain abscesses using DyLight® 690-VAD-FMK tracer (right); minimal signal was detected in the DyLight® 690 Free Dye Control (left).

ImmunoChemistry Technologies Near Infrared DyLight® 690 Free Dye Control Assay

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Experimental design of Aim2WT or Aim2−/− bone marrow (BM) transplantation to Ldlr−/−:Mx1cre:c-mybfl/fl mice receiving i.v. DNA (top) and flow cytometry histograms (bottom) of caspase-1 activity(Assay kit, Cat no. 9122) in bone marrow recipients 24 h after i.v. DNA. Image from publication, CC-BY-4.0, PMID: 39112714.

ImmunoChemistry Technologies Near-Infrared DyLight® 690 Tracer in vivo Active Caspase (VAD) Assay

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Figure 1. Excitation and emission spectra. Red Fluorescent SR In vivo Poly (active) Caspase (VAD) Assay inhibitor probe was reconstituted in DMSO, diluted in an aqueous buffer, and then analyzed on a Molecular Devices M5e plate reader. The excitation spectrum (black) was generated using an emission of 630 nm. The emission spectrum (orange) was generated using an excitation of 540 nm. The probe optimally excites at 550-580 nm and has a peak emission at 590-600 nm.

Figure 2. Mice were given either a 0Gy or 15Gy whole lung dose of gamma irradiation. SR in vivo probe (Cat. 982/983) was injected and allowed to circulate for 18 hours prior to sacrifice. Paraffin sections were prepared, nuclei stained with DAPI (blue), and lungs imaged with a fluorescence microscope. Caspase activity (red) was induced in irradiated mice compared to control animals. Data courtesy of E. Hernady (University of Rochester Medical Center, Rochester, NY).

ImmunoChemistry Technologies Red Fluorescent SR In vivo Poly (active) Caspase (VAD) Assay

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Figure 1. Green Fluorescent FAM In vivo Poly (active) Caspase (VAD) Assay inhibitor probe was reconstituted in DMSO, diluted in an aqueous buffer, and then analyzed on a Molecular Devices M5e plate reader. The excitation spectrum (black) was generated using an emission of 590 nm. The emission spectrum (green) was generated using an excitation of 460 nm.

Figure 2. Staurosporine (cat. 6212) was injected into the forebrain of a female house sparrow to induce apoptosis. Approximately 20 hours later, FAM in vivo probe (cat. 980/981) was intravenously injected into the jugular and allowed to circulate 30 minutes. The bird was sacrificed and frozen brain sections prepared. Neurons with active caspases fluoresce green. This image shows one apoptotic neuron at 100X. Data courtesy of Mr. Chris Thompson at the University of Washington, Seattle.

ImmunoChemistry Technologies Green Fluorescent FAM In vivo Poly (active) Caspase (VAD) Assay

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Figure 1. Jurkat cells were treated with a negative control (left) or staurosporine (right), then stained using Swine Annexin V-Fluorescein Assay (cat. 9142). Annexin V-Fluorescein labeled only 13.1% of control cells (UR + LR = 11.0% + 3.1%, left), whereas staurosporine induced Annexin V-Fluorescein labeling in 96.7% of cells (UR + LR = 32.7% + 64.0%, right). Staurosporine also significantly increased the proportion of dually stained cells (UR). Data courtesy of Mrs. T. Murphy, ICT, 227:19.

ImmunoChemistry Technologies Swine Annexin V-Fluorescein Apoptosis Assay Kit

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Figure 1. Jurkat cells were treated with a negative control (left) or staurosporine (right), washed, then stained with Equine Annexin V-Fluorescein Assay (Cat. 9141). Equine Annexin V-Fluorescene labeled only 17.4% of the control cells (UR + LR = 10.3% + 7.1%, left); staurosporine induced Equine Annexin V-Fluorescene labeling in 97.6% of cells (UR + LR = 27.8% + 69.8%, right). Staurosporine increased the proportion of dual stained cells (UR). Data courtesy of Mrs. T. Murphy, ICT, 227:68.

ImmunoChemistry Technologies Equine Annexin V-Fluorescein Apoptosis Assay Kit

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Figure 1. Jurkat cells were treated with a negative control (left) or staurosporine (right), washed, then stained with Chicken Annexin V-Fluorescein Assay (Cat. 9140). Chicken Annexin V-Fluorescein labeled only 16.9% of control cells (UR + LR = 13.2% + 3.7%, left); staurosporine induced Chicken Annexin V-Fluorescein labeling in 97% of cells (UR + LR = 46.6% + 50.4%, right). Staurosporine increased the proportion of dual stained cells (UR). Data courtesy of Mrs. Tracy Murphy, ICT, 227:19.

ImmunoChemistry Technologies Chicken Annexin V-Fluorescein Apoptosis Assay Kit

$469

Figure 1. Jurkat cells were treated with a negative control (left) or staurosporine (right), then stained with Canine Annexin V-Fluorescein Assay (cat. 9139). Annexin V-Fluorescein labeled only 15.6% of the control cells (UR + LR = 9.8% + 5.8%, left); staurosporine induced Annexin V-Fluorescein labeling in 97.3% of cells (UR + LR = 11.5% + 85.8%, right). Staurosporine did not significantly increase the proportion of dually stained cells (UR). Data courtesy of Mrs. T. Murphy, ICT, 224:69-71.

ImmunoChemistry Technologies Canine Annexin V-Fluorescein Apoptosis Assay Kit

$469

Figure 1. Jurkat cells were treated with a negative control (left) or staurosporine (right), washed, and then stained with Bovine Annexin V-Fluorescein (Cat. 9138). Bovine Annexin V-Fluorescein labeled only 17.6% of control cells (UR + LR = 13.5% + 4.1%, left); staurosporine induced Bovine Annexin V-Fluorescein labeling in 98.8% of cells (UR + LR = 15.3% + 83.5%, right). Staurosporine did not increase the proportion of dual stained cells (UR). Data courtesy of Mrs. Tracy Hanson, ICT, 224:69-71.

ImmunoChemistry Technologies Bovine Annexin V-Fluorescein Apoptosis Assay Kit

$469

Figure 1. Quantification of 4 populations in each sample

ImmunoChemistry Technologies Cell-mediated Cytotoxicity Assay: Total Cytotoxicity Test

From $384.20

ImmunoChemistry Technologies Native Human Cathepsin D

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ImmunoChemistry Technologies Cathepsin B

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Figure 2. Jurkat cells were exposed to 3% formaldehyde for 30 minutes. Following the formaldhehyde treatment, cells were stained with Green Live/ Dead stain and then imaged with a Nikon E800 microscope (DIC overlay shown). Cells with compromised membranes stained green, while cells with intact membranes excluded the Green Live/Dead stain and remained unstained. Data courtesy of Mrs. Tracy Murphy, ICT.

ImmunoChemistry Technologies Green Live/Dead Stain

$106

Immunolabeling of an organ cultured human hair follicle treated with 1.25ug/ml of ICP5249 for 5 days labeling light chain 3 I/II (green) and DAPI (Cat No 6244, blue) was used for nuclear staining. Image from publication. CC-BY-4.0 PMID: 39155393

ImmunoChemistry Technologies DAPI Nuclear Stain

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Figure 1. Jurkat cells were untreated (live) (A) or treated with 90% ethanol (dead) (B). Cells were pelleted by centrifugation (200 x g for 5 minutes) and resuspended in PBS. Cells were then stained with 7-AAD for 10 minutes on ice, and analyzed using an Accuri C6 flow cytometer in FL-3. Only 4% of untreated cells (A) are dead compared with 97.6% of the treated cells (B) (ICT 226:30-31).

Figure 2. Jurkat cells were exposed to staurosporine to induce apoptosis, then dually stained with the green fluorescent FAM-FLICA poly caspase probe to detect apoptosis via caspase activity, and the red dye 7-AAD to detect necrosis. Early apoptotic cells fluoresce green with FAM-FLICA. Dually stained green and red fluorescing cells are in mid to late stage apoptosis (active caspases and compromised cell membranes). Necrotic cells fluoresce red. (ICT 196:70).

ImmunoChemistry Technologies 7-AAD Red Fluorescent Live/Dead Stain

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Figure 1. Staining of Healthy Jurkat Cells Healthy Jurkat cells were stained with CFSE or left unstained and then analyzed by flow cytometry using an Accuri C6 flow cytometer equipped with a FL1 99% attenuation filter. Unstained Jurkat cells (A), stained Jurkat cells (B), and the corresponding overlay (C) are shown.

Figure 2. Identification of CFSE-stained Cells. K562 target cells were stained green with CFSE and then subjected to effector cells. Green stained target cells are easily identifiable when analyzed by FL1 vs. SSC on a flow cytometer. Target cells stained green with CFSE move to the right along the X-axis (FL1) of the plot (right) compared with unstained effector cells. This plot becomes particularly important when gating on target cells that are the same size as effector cells.

ImmunoChemistry Technologies CFSE Green Fluorescent Stain - for cell labelling and proliferation studies

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Figure 1. Normal Jurkat cells stained with Acridine Orange (AO) show orange lysosomal staining. Cells were stained with 5 µM AO in PBS for 60 minutes at 37°C. Photomicrographs were taken using a Nikon Eclipse E800 photomicroscope using a 460-500 nm excitation filter and a 505-560 nm emission / barrier filter set at 300X. Photo B shows the corresponding DIC image of the cells in A (AO appears faintly). Data courtesy of Dr. Zbigniew Darzynkiewicz (Brander Cancer Research Institute, New York, NY).

Figure 2. MCF-7 cells were treated with camptothecin to induce apoptosis (cat. 6210), stained with AO in PBS, washed, and then photographed with an epifluorescence microscope at 40X using either a blue light excitation (492 nm) with a 540- 550 nm emission filter (A, lysosomes appear yellowish green), or green light excitation (540 nm) with a long pass >640 nm barrier filter (B, lysosomes appear red). Data courtesy of Dr. Zbigniew Darzynkiewicz (Brander Cancer Research Center Institute, New York, NY).

ImmunoChemistry Technologies Acridine Orange Fluorescent Staining Solution

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ImmunoChemistry Technologies Fixative

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Figure 1. A pool of Jurkat cells was spiked with FAM-YVAD-FMK (cat. 9146) and divided into separate treatment groups. Starting with 24 hour samples and working backwards, 10 µM Nigericin was added to cells and the samples were incubated at 37°C throughout the induction process. The cells were washed and analyzed on a flow cytometer. The level of caspase-1 activity directly correlated to the period of exposure to Nigericin Data. courtesy of Mrs. Tracy Murphy, ICT (220:78).

ImmunoChemistry Technologies Nigericin

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ImmunoChemistry Technologies Tumor Necrosis Factor beta

$370.80

ImmunoChemistry Technologies Tumor Necrosis Factor alpha

$683.90

ImmunoChemistry Technologies Staurosporine

$94.20

ImmunoChemistry Technologies Camptothecin

From $34.20

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Cell Viability, Metabolism Assays and Biochemicals

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