Staining of permeabilised mouse peritoneal macrophages with Rat anti Mouse CD68:Alexa Fluor 647 (MBS215395A647). following permeablisation with Leucoperm
Immunoperoxidase staining of a mouse lymph node cryosection with Rat anti Mouse CD68 antibody, clone FA11 (MBS215395) followed by Goat anti Rat IgG antibody (MBS235195). Low power
Immunoperoxidase staining of a mouse lymph node cryosection with Rat anti Mouse CD68 antibody, clone FA11 (MBS215395) followed by Goat anti Rat IgG antibody (MBS235195). Medium power
Western Blot analysis of CD68 expression on J774 cells using Rat anti Mouse CD68 (MBS215403) with Goat anti Rat IgG:HRP (MBS235195) as a detection antibody
Staining of mouse peritoneal macrophages with Rat anti Mouse CD68: Alexa Fluor 488 (MBS215395A488). following permeablisation with Leucoperm
Published customer image: Phenotype of pancreatic macrophages. (A) Identification of macrophage subsets in pancreas of CX3CR1GFP/+ C56BL/6 mice. Pancreatic single cell suspensions were gated on FSC-A vs FSC-W and CD45+. Histograms show receptor expression profile of CX3CR1hiLYVE-1- (green line) and CX3CR1loLYVE-1+ (red line) macrophages. (B) Sorted CX3CR1loLYVE-1+ and CX3CR1hiLYVE-1- macrophages spun onto glass slides and stained with Wright's stain. 1000x magnification. (C) mRNA expression profile of chemokine receptors, chemokines and VEGFs in pancreatic macrophage subsets. mRNA levels examined by qRT-PCR in duplicate or triplicate. 6 -7 mice/group, data representative of 2 -4 separate experiments.From: Yin N, Zhang N, Lal G, Xu J, Yan M, et al. (2011) Lymphangiogenesis Is Required for Pancreatic Islet Inflammation and Diabetes. PLoS ONE 6(11): e28023.
Published customer image: Histology in 9V/9V/GCStg and 9V/null/GCStg mice. (A) The lung and liver sections from 9-wk old 9V/9V (row 1), 9V/9V/GCStg (row 2), 9V/null (row 3) and 9V/null/GCStg (row 4) were processed for H&E and CD68 antibody staining as indicated. Large and pale storage cells were observed in H&E stained lung and liver sections (arrows). The macrophages were indicated by anti-CD68 immunostaining (brown). Images were captured by Zeiss microscope with Spot Advance software. Scale bar was 40 um for all images. (B) The distribution and density of macrophages in 9V/null/GCStg lung and liver immunostained by anti-CD68 antibody (brown). Scale bar was 40 um for both images. (C) CD68 positive cells (CD68+) in 9V/9V/GCStg and 9V/null/GCStg lungs had significantly more CD68 stained macrophages than 9V/9V and 9V/null at 9 wks of age, respectively. The data present number of cells per image of total 5-15 images/mouse, 3 mice per genotype. Results with error bars are mean +/-S.E. The p values were from Student's t-test.From: Barnes S, Xu Y-H, Zhang W, Liou B, Setchell KDR, et al. (2014) Ubiquitous Transgene Expression of the Glucosylceramide-Synthesizing Enzyme Accelerates Glucosylceramide Accumulation and Storage Cells in a Gaucher Disease Mouse Model. PLoS ONE 9(12): e116023.
Staining of mouse spleen cryosection with Rat anti Mouse CD68 (MBS215395) followed by Goat anti Rat IgG:HRP (MBS220363) showing staining of macrophages in the red pulp
Published customer image: Impact of SOCS-1 deficiency on atherosclerotic plaque composition A. Atherosclerotic plaques from Socs-1-/- triple-KO (Socs-1-/-) mice showed an increased CD68 (red);iNOS (green) double-positive cell content. B. CD68 (red); CD206 (green) double-positive cells were hardly detected. C. Atherosclerotic plaques from Socs-1-/-triple-KO (Socs-1-/-) mice contained slightly more MOMA-2 (red); Ly-6C (green) double-positive cells after 4 weeks of HCD as well as D. a higher number of Ly-6G positive cells (scale bar A -C: 20 um, scale bar D:50 um). N = 5 -7 animals per group.From: Grothusen C, Schuett H, Hillmer A, Lumpe S, Grote K, et al. (2012) Role of Suppressor of Cytokine Signaling-1 In Murine Atherosclerosis. PLoS ONE 7(12): e51608.
Published customer image: Leukocyte infiltration in COX-2-M/-M and COX-2+/+ mice. MPO enzymatic activity (panel A) was statistically similar in COX-2-M/-M and COX-2+/+ livers at 6 h and 24 h post-IRI. Ly-6G+ neutrophil (panel B) and granulocyte (panel C) infiltration were also comparable in COX-2-M/-M and COX-2+/+ livers after IRI. Mac-1+ (panel D) and CD68 (panel E) infiltrating macrophages were significantly reduced in COX-2-M/-M livers at 24 h post-reperfusion, but were statistically indistinguishable in COX-2-M/-M and COX-2+/+ livers at 6 h after IRI. No statistical differences in MMP-9 expression (panel F) could be demonstrated in livers of COX-2-M/-M and COX-2+/+ mice post-IRI. Representative immunostaining (panel G) of infiltrating Ly-6G+ (a,b,e,f) and Mac-1+ (c,d,g,h) leukocytes in livers of COX-2+/+ (a,c,e,g) and COX-2-M/-M (b,d,f,h) mice at 6 h (a to d) and 24 h (e to h) post IRI; (n = 5 -6/group; * indicates p