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ace2 poly primary goat polyclonal antibody  (R&D Systems)


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    Structured Review

    R&D Systems ace2 poly primary goat polyclonal antibody
    Immunohistochemistry confirms positive staining for <t>ACE2</t> in several human tissue types. Representative fluorescent images of 4% formaldehyde fixed human tissue sections (n ≥ 3 independent donors, stained in duplicate) treated with ACE2 poly antibody (R&D AF933), visualised in green, and Hoechst 33342 nuclear stain, visualised in blue. Scale bars are as indicated in figure. Tissues shown include: ( a ) Kidney, with cortex and medulla indicated; ( b ) Kidney control section treated with secondary antibody and Hoechst 33342 alone; ( c ) Heart tissue, comprised predominantly of cardiomyocytes; ( d ) Lung, with preserved airway structures; ( e ) Liver, comprised predominantly of hepatocytes with preserved bile duct structures; ( f ) Hepatic artery section.
    Ace2 Poly Primary Goat Polyclonal Antibody, supplied by R&D Systems, used in various techniques. Bioz Stars score: 96/100, based on 588 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
    https://www.bioz.com/result/ace2 poly primary goat polyclonal antibody/product/R&D Systems
    Average 96 stars, based on 588 article reviews
    ace2 poly primary goat polyclonal antibody - by Bioz Stars, 2026-02
    96/100 stars

    Images

    1) Product Images from "Differential expression in humans of the viral entry receptor ACE2 compared with the short delta ACE2 isoform lacking SARS-CoV-2 binding sites"

    Article Title: Differential expression in humans of the viral entry receptor ACE2 compared with the short delta ACE2 isoform lacking SARS-CoV-2 binding sites

    Journal: Scientific Reports

    doi: 10.1038/s41598-021-03731-9

    Immunohistochemistry confirms positive staining for ACE2 in several human tissue types. Representative fluorescent images of 4% formaldehyde fixed human tissue sections (n ≥ 3 independent donors, stained in duplicate) treated with ACE2 poly antibody (R&D AF933), visualised in green, and Hoechst 33342 nuclear stain, visualised in blue. Scale bars are as indicated in figure. Tissues shown include: ( a ) Kidney, with cortex and medulla indicated; ( b ) Kidney control section treated with secondary antibody and Hoechst 33342 alone; ( c ) Heart tissue, comprised predominantly of cardiomyocytes; ( d ) Lung, with preserved airway structures; ( e ) Liver, comprised predominantly of hepatocytes with preserved bile duct structures; ( f ) Hepatic artery section.
    Figure Legend Snippet: Immunohistochemistry confirms positive staining for ACE2 in several human tissue types. Representative fluorescent images of 4% formaldehyde fixed human tissue sections (n ≥ 3 independent donors, stained in duplicate) treated with ACE2 poly antibody (R&D AF933), visualised in green, and Hoechst 33342 nuclear stain, visualised in blue. Scale bars are as indicated in figure. Tissues shown include: ( a ) Kidney, with cortex and medulla indicated; ( b ) Kidney control section treated with secondary antibody and Hoechst 33342 alone; ( c ) Heart tissue, comprised predominantly of cardiomyocytes; ( d ) Lung, with preserved airway structures; ( e ) Liver, comprised predominantly of hepatocytes with preserved bile duct structures; ( f ) Hepatic artery section.

    Techniques Used: Immunohistochemistry, Staining

    Schematic showing the critical protein domains of full-length ACE2 versus the short dACE2 isoform. The 805 amino acid full-length ACE2 protein (left) is comprised of an extracellular domain that protrudes into the extracellular (E.C.) space and an intracellular domain that remains in the intracellular (I.C.) space. The extracellular domain is made up of a signal peptide (SP) that extends from positions 1–18; the peptide-binding catalytic site that covers 272–515; two spike protein binding sites (SB) located at 24–42 and 353–357; a collectrin-like domain (CLD) that covers 616–805; and a short transmembrane domain (TMD) that spans the membrane at positions 741–762. The short dACE2 isoform (right) loses all amino acids up to positon 357 and a unique 10 amino acid sequence caps the N-terminus. Note that dACE2 has lost both its spike protein binding sites and the catalytic site is non-functional. The diagram also shows the potential binding sites for the ACE2 poly antibody (green), raised against an 18–740 amino acid immunogen of ACE2, versus the single proprietary binding site that sits between amino acids 200–300 for the ACE2 mono antibody (orange). If the full ACE2 isoform is present, green and orange fluorescent signal will be observed in immunological staining studies. If only the short ACE2 isoform is present, green fluorescent signal alone will be observed due to the lack of the monoclonal antibody binding site. The schematic was generated using templates from Servier Medical Art (smart.servier.com).
    Figure Legend Snippet: Schematic showing the critical protein domains of full-length ACE2 versus the short dACE2 isoform. The 805 amino acid full-length ACE2 protein (left) is comprised of an extracellular domain that protrudes into the extracellular (E.C.) space and an intracellular domain that remains in the intracellular (I.C.) space. The extracellular domain is made up of a signal peptide (SP) that extends from positions 1–18; the peptide-binding catalytic site that covers 272–515; two spike protein binding sites (SB) located at 24–42 and 353–357; a collectrin-like domain (CLD) that covers 616–805; and a short transmembrane domain (TMD) that spans the membrane at positions 741–762. The short dACE2 isoform (right) loses all amino acids up to positon 357 and a unique 10 amino acid sequence caps the N-terminus. Note that dACE2 has lost both its spike protein binding sites and the catalytic site is non-functional. The diagram also shows the potential binding sites for the ACE2 poly antibody (green), raised against an 18–740 amino acid immunogen of ACE2, versus the single proprietary binding site that sits between amino acids 200–300 for the ACE2 mono antibody (orange). If the full ACE2 isoform is present, green and orange fluorescent signal will be observed in immunological staining studies. If only the short ACE2 isoform is present, green fluorescent signal alone will be observed due to the lack of the monoclonal antibody binding site. The schematic was generated using templates from Servier Medical Art (smart.servier.com).

    Techniques Used: Binding Assay, Protein Binding, Sequencing, Functional Assay, Staining, Generated

    Differential expression of full-length ACE2 and the short dACE2 isoform in a panel of human tissues. Representative fluorescent images (n = 3 independent donors, stained in duplicate) of human tissue fixed in 4% formaldehyde and treated with ACE2 poly (left column, visualised in green) and ACE2 mono (centre column, visualised in orange). Merged images (right column, overlay) also include Hoechst 33342 nuclear marker (visualised in blue). Scale bars are as indicated in figure. Tissues shown include: ( a ) Kidney cortex, with a glomerulus (glom.) indicated; ( b ) Kidney border, showing a region where tubules of the cortex meet tubules of the medulla; ( c ) Heart tissue, showing cardiomyocytes; ( d ) Lung tissue, showing an airway structure; ( e ) Liver bile duct; ( f ) Liver hepatocytes.
    Figure Legend Snippet: Differential expression of full-length ACE2 and the short dACE2 isoform in a panel of human tissues. Representative fluorescent images (n = 3 independent donors, stained in duplicate) of human tissue fixed in 4% formaldehyde and treated with ACE2 poly (left column, visualised in green) and ACE2 mono (centre column, visualised in orange). Merged images (right column, overlay) also include Hoechst 33342 nuclear marker (visualised in blue). Scale bars are as indicated in figure. Tissues shown include: ( a ) Kidney cortex, with a glomerulus (glom.) indicated; ( b ) Kidney border, showing a region where tubules of the cortex meet tubules of the medulla; ( c ) Heart tissue, showing cardiomyocytes; ( d ) Lung tissue, showing an airway structure; ( e ) Liver bile duct; ( f ) Liver hepatocytes.

    Techniques Used: Expressing, Staining, Marker

    Quantification of differential expression of full-length ACE2 and the short dACE2 isoform in specific structures of human tissues. Graphical output shows the fold change in mean fluorescence observed for the respective secondary antibodies used to visualise ACE2 poly and ACE2 mono in distinct anatomical structures of the human tissue sections shown in Fig. . For each structure, n = 6 from ≥ 2 tissue sections. ( a ) Fold change in mean fluorescence observed for ACE2 poly and ACE2 mono in kidney cortex and glomeruli (Glom.), versus the normalised mean fluorescence observed in the renal medulla. ( b ) Fold change in mean fluorescence observed for ACE2 poly and ACE2 mono in airway structures and blood vessels (Blood ves.) of the lung, versus the normalised mean fluorescence observed in the connective tissue (Connec.). ( c ) Fold change in mean fluorescence observed for ACE2 poly and ACE2 mono in liver bile ducts and blood vessels (Blood ves.), versus the normalised mean fluorescence observed in liver hepatocytes (Hepato.). All data show mean ± SEM with individual data points shown. Statistical analyses of data included a one way ANOVA with multiple comparisons using Tukey’s correction. Statistical significance was determined where p < 0.05. **** or #### = p < 0.0001; ** = p < 0.01; n.s. = no significant difference.
    Figure Legend Snippet: Quantification of differential expression of full-length ACE2 and the short dACE2 isoform in specific structures of human tissues. Graphical output shows the fold change in mean fluorescence observed for the respective secondary antibodies used to visualise ACE2 poly and ACE2 mono in distinct anatomical structures of the human tissue sections shown in Fig. . For each structure, n = 6 from ≥ 2 tissue sections. ( a ) Fold change in mean fluorescence observed for ACE2 poly and ACE2 mono in kidney cortex and glomeruli (Glom.), versus the normalised mean fluorescence observed in the renal medulla. ( b ) Fold change in mean fluorescence observed for ACE2 poly and ACE2 mono in airway structures and blood vessels (Blood ves.) of the lung, versus the normalised mean fluorescence observed in the connective tissue (Connec.). ( c ) Fold change in mean fluorescence observed for ACE2 poly and ACE2 mono in liver bile ducts and blood vessels (Blood ves.), versus the normalised mean fluorescence observed in liver hepatocytes (Hepato.). All data show mean ± SEM with individual data points shown. Statistical analyses of data included a one way ANOVA with multiple comparisons using Tukey’s correction. Statistical significance was determined where p < 0.05. **** or #### = p < 0.0001; ** = p < 0.01; n.s. = no significant difference.

    Techniques Used: Expressing, Fluorescence

    Binding of fluorescent SARS-CoV-2 spike-AF647 in ACE2 positive cells in a panel of human tissues. Representative confocal fluorescent images (n ≥ 2 independent donors, stained in duplicate) of human tissue fixed in 4% formaldehyde and treated with ACE2 poly (left column, visualised in green) and 1 µM spike-AF647 (centre column, visualised in red). Merged images (right column, overlay) also include Hoechst 33342 nuclear marker (visualised in blue). Scale bars are as indicated in figure. Tissues shown include: ( a ) Kidney cortex; ( b ) Kidney medulla; ( c ) Left ventricle heart tissue, showing cardiomyocytes; ( d ) Lung tissue, showing an airway structure; ( e ) Liver bile duct; ( f ) Liver hepatocytes.
    Figure Legend Snippet: Binding of fluorescent SARS-CoV-2 spike-AF647 in ACE2 positive cells in a panel of human tissues. Representative confocal fluorescent images (n ≥ 2 independent donors, stained in duplicate) of human tissue fixed in 4% formaldehyde and treated with ACE2 poly (left column, visualised in green) and 1 µM spike-AF647 (centre column, visualised in red). Merged images (right column, overlay) also include Hoechst 33342 nuclear marker (visualised in blue). Scale bars are as indicated in figure. Tissues shown include: ( a ) Kidney cortex; ( b ) Kidney medulla; ( c ) Left ventricle heart tissue, showing cardiomyocytes; ( d ) Lung tissue, showing an airway structure; ( e ) Liver bile duct; ( f ) Liver hepatocytes.

    Techniques Used: Binding Assay, Staining, Marker



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    R&D Systems ace2 poly primary goat polyclonal antibody
    Immunohistochemistry confirms positive staining for <t>ACE2</t> in several human tissue types. Representative fluorescent images of 4% formaldehyde fixed human tissue sections (n ≥ 3 independent donors, stained in duplicate) treated with ACE2 poly antibody (R&D AF933), visualised in green, and Hoechst 33342 nuclear stain, visualised in blue. Scale bars are as indicated in figure. Tissues shown include: ( a ) Kidney, with cortex and medulla indicated; ( b ) Kidney control section treated with secondary antibody and Hoechst 33342 alone; ( c ) Heart tissue, comprised predominantly of cardiomyocytes; ( d ) Lung, with preserved airway structures; ( e ) Liver, comprised predominantly of hepatocytes with preserved bile duct structures; ( f ) Hepatic artery section.
    Ace2 Poly Primary Goat Polyclonal Antibody, supplied by R&D Systems, used in various techniques. Bioz Stars score: 96/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
    https://www.bioz.com/result/ace2 poly primary goat polyclonal antibody/product/R&D Systems
    Average 96 stars, based on 1 article reviews
    ace2 poly primary goat polyclonal antibody - by Bioz Stars, 2026-02
    96/100 stars
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    Immunohistochemistry confirms positive staining for ACE2 in several human tissue types. Representative fluorescent images of 4% formaldehyde fixed human tissue sections (n ≥ 3 independent donors, stained in duplicate) treated with ACE2 poly antibody (R&D AF933), visualised in green, and Hoechst 33342 nuclear stain, visualised in blue. Scale bars are as indicated in figure. Tissues shown include: ( a ) Kidney, with cortex and medulla indicated; ( b ) Kidney control section treated with secondary antibody and Hoechst 33342 alone; ( c ) Heart tissue, comprised predominantly of cardiomyocytes; ( d ) Lung, with preserved airway structures; ( e ) Liver, comprised predominantly of hepatocytes with preserved bile duct structures; ( f ) Hepatic artery section.

    Journal: Scientific Reports

    Article Title: Differential expression in humans of the viral entry receptor ACE2 compared with the short delta ACE2 isoform lacking SARS-CoV-2 binding sites

    doi: 10.1038/s41598-021-03731-9

    Figure Lengend Snippet: Immunohistochemistry confirms positive staining for ACE2 in several human tissue types. Representative fluorescent images of 4% formaldehyde fixed human tissue sections (n ≥ 3 independent donors, stained in duplicate) treated with ACE2 poly antibody (R&D AF933), visualised in green, and Hoechst 33342 nuclear stain, visualised in blue. Scale bars are as indicated in figure. Tissues shown include: ( a ) Kidney, with cortex and medulla indicated; ( b ) Kidney control section treated with secondary antibody and Hoechst 33342 alone; ( c ) Heart tissue, comprised predominantly of cardiomyocytes; ( d ) Lung, with preserved airway structures; ( e ) Liver, comprised predominantly of hepatocytes with preserved bile duct structures; ( f ) Hepatic artery section.

    Article Snippet: Sections were then incubated overnight at 4 °C with ACE2 poly primary goat polyclonal antibody to Human ACE2 (AF933; R&D; 1:100) and/or ACE2 mono primary rabbit monoclonal antibody to a site between 200 and 300 amino acids (N-terminus) of Human ACE2 (ab108252; Abcam; 1:100), depending on the experiment.

    Techniques: Immunohistochemistry, Staining

    Schematic showing the critical protein domains of full-length ACE2 versus the short dACE2 isoform. The 805 amino acid full-length ACE2 protein (left) is comprised of an extracellular domain that protrudes into the extracellular (E.C.) space and an intracellular domain that remains in the intracellular (I.C.) space. The extracellular domain is made up of a signal peptide (SP) that extends from positions 1–18; the peptide-binding catalytic site that covers 272–515; two spike protein binding sites (SB) located at 24–42 and 353–357; a collectrin-like domain (CLD) that covers 616–805; and a short transmembrane domain (TMD) that spans the membrane at positions 741–762. The short dACE2 isoform (right) loses all amino acids up to positon 357 and a unique 10 amino acid sequence caps the N-terminus. Note that dACE2 has lost both its spike protein binding sites and the catalytic site is non-functional. The diagram also shows the potential binding sites for the ACE2 poly antibody (green), raised against an 18–740 amino acid immunogen of ACE2, versus the single proprietary binding site that sits between amino acids 200–300 for the ACE2 mono antibody (orange). If the full ACE2 isoform is present, green and orange fluorescent signal will be observed in immunological staining studies. If only the short ACE2 isoform is present, green fluorescent signal alone will be observed due to the lack of the monoclonal antibody binding site. The schematic was generated using templates from Servier Medical Art (smart.servier.com).

    Journal: Scientific Reports

    Article Title: Differential expression in humans of the viral entry receptor ACE2 compared with the short delta ACE2 isoform lacking SARS-CoV-2 binding sites

    doi: 10.1038/s41598-021-03731-9

    Figure Lengend Snippet: Schematic showing the critical protein domains of full-length ACE2 versus the short dACE2 isoform. The 805 amino acid full-length ACE2 protein (left) is comprised of an extracellular domain that protrudes into the extracellular (E.C.) space and an intracellular domain that remains in the intracellular (I.C.) space. The extracellular domain is made up of a signal peptide (SP) that extends from positions 1–18; the peptide-binding catalytic site that covers 272–515; two spike protein binding sites (SB) located at 24–42 and 353–357; a collectrin-like domain (CLD) that covers 616–805; and a short transmembrane domain (TMD) that spans the membrane at positions 741–762. The short dACE2 isoform (right) loses all amino acids up to positon 357 and a unique 10 amino acid sequence caps the N-terminus. Note that dACE2 has lost both its spike protein binding sites and the catalytic site is non-functional. The diagram also shows the potential binding sites for the ACE2 poly antibody (green), raised against an 18–740 amino acid immunogen of ACE2, versus the single proprietary binding site that sits between amino acids 200–300 for the ACE2 mono antibody (orange). If the full ACE2 isoform is present, green and orange fluorescent signal will be observed in immunological staining studies. If only the short ACE2 isoform is present, green fluorescent signal alone will be observed due to the lack of the monoclonal antibody binding site. The schematic was generated using templates from Servier Medical Art (smart.servier.com).

    Article Snippet: Sections were then incubated overnight at 4 °C with ACE2 poly primary goat polyclonal antibody to Human ACE2 (AF933; R&D; 1:100) and/or ACE2 mono primary rabbit monoclonal antibody to a site between 200 and 300 amino acids (N-terminus) of Human ACE2 (ab108252; Abcam; 1:100), depending on the experiment.

    Techniques: Binding Assay, Protein Binding, Sequencing, Functional Assay, Staining, Generated

    Differential expression of full-length ACE2 and the short dACE2 isoform in a panel of human tissues. Representative fluorescent images (n = 3 independent donors, stained in duplicate) of human tissue fixed in 4% formaldehyde and treated with ACE2 poly (left column, visualised in green) and ACE2 mono (centre column, visualised in orange). Merged images (right column, overlay) also include Hoechst 33342 nuclear marker (visualised in blue). Scale bars are as indicated in figure. Tissues shown include: ( a ) Kidney cortex, with a glomerulus (glom.) indicated; ( b ) Kidney border, showing a region where tubules of the cortex meet tubules of the medulla; ( c ) Heart tissue, showing cardiomyocytes; ( d ) Lung tissue, showing an airway structure; ( e ) Liver bile duct; ( f ) Liver hepatocytes.

    Journal: Scientific Reports

    Article Title: Differential expression in humans of the viral entry receptor ACE2 compared with the short delta ACE2 isoform lacking SARS-CoV-2 binding sites

    doi: 10.1038/s41598-021-03731-9

    Figure Lengend Snippet: Differential expression of full-length ACE2 and the short dACE2 isoform in a panel of human tissues. Representative fluorescent images (n = 3 independent donors, stained in duplicate) of human tissue fixed in 4% formaldehyde and treated with ACE2 poly (left column, visualised in green) and ACE2 mono (centre column, visualised in orange). Merged images (right column, overlay) also include Hoechst 33342 nuclear marker (visualised in blue). Scale bars are as indicated in figure. Tissues shown include: ( a ) Kidney cortex, with a glomerulus (glom.) indicated; ( b ) Kidney border, showing a region where tubules of the cortex meet tubules of the medulla; ( c ) Heart tissue, showing cardiomyocytes; ( d ) Lung tissue, showing an airway structure; ( e ) Liver bile duct; ( f ) Liver hepatocytes.

    Article Snippet: Sections were then incubated overnight at 4 °C with ACE2 poly primary goat polyclonal antibody to Human ACE2 (AF933; R&D; 1:100) and/or ACE2 mono primary rabbit monoclonal antibody to a site between 200 and 300 amino acids (N-terminus) of Human ACE2 (ab108252; Abcam; 1:100), depending on the experiment.

    Techniques: Expressing, Staining, Marker

    Quantification of differential expression of full-length ACE2 and the short dACE2 isoform in specific structures of human tissues. Graphical output shows the fold change in mean fluorescence observed for the respective secondary antibodies used to visualise ACE2 poly and ACE2 mono in distinct anatomical structures of the human tissue sections shown in Fig. . For each structure, n = 6 from ≥ 2 tissue sections. ( a ) Fold change in mean fluorescence observed for ACE2 poly and ACE2 mono in kidney cortex and glomeruli (Glom.), versus the normalised mean fluorescence observed in the renal medulla. ( b ) Fold change in mean fluorescence observed for ACE2 poly and ACE2 mono in airway structures and blood vessels (Blood ves.) of the lung, versus the normalised mean fluorescence observed in the connective tissue (Connec.). ( c ) Fold change in mean fluorescence observed for ACE2 poly and ACE2 mono in liver bile ducts and blood vessels (Blood ves.), versus the normalised mean fluorescence observed in liver hepatocytes (Hepato.). All data show mean ± SEM with individual data points shown. Statistical analyses of data included a one way ANOVA with multiple comparisons using Tukey’s correction. Statistical significance was determined where p < 0.05. **** or #### = p < 0.0001; ** = p < 0.01; n.s. = no significant difference.

    Journal: Scientific Reports

    Article Title: Differential expression in humans of the viral entry receptor ACE2 compared with the short delta ACE2 isoform lacking SARS-CoV-2 binding sites

    doi: 10.1038/s41598-021-03731-9

    Figure Lengend Snippet: Quantification of differential expression of full-length ACE2 and the short dACE2 isoform in specific structures of human tissues. Graphical output shows the fold change in mean fluorescence observed for the respective secondary antibodies used to visualise ACE2 poly and ACE2 mono in distinct anatomical structures of the human tissue sections shown in Fig. . For each structure, n = 6 from ≥ 2 tissue sections. ( a ) Fold change in mean fluorescence observed for ACE2 poly and ACE2 mono in kidney cortex and glomeruli (Glom.), versus the normalised mean fluorescence observed in the renal medulla. ( b ) Fold change in mean fluorescence observed for ACE2 poly and ACE2 mono in airway structures and blood vessels (Blood ves.) of the lung, versus the normalised mean fluorescence observed in the connective tissue (Connec.). ( c ) Fold change in mean fluorescence observed for ACE2 poly and ACE2 mono in liver bile ducts and blood vessels (Blood ves.), versus the normalised mean fluorescence observed in liver hepatocytes (Hepato.). All data show mean ± SEM with individual data points shown. Statistical analyses of data included a one way ANOVA with multiple comparisons using Tukey’s correction. Statistical significance was determined where p < 0.05. **** or #### = p < 0.0001; ** = p < 0.01; n.s. = no significant difference.

    Article Snippet: Sections were then incubated overnight at 4 °C with ACE2 poly primary goat polyclonal antibody to Human ACE2 (AF933; R&D; 1:100) and/or ACE2 mono primary rabbit monoclonal antibody to a site between 200 and 300 amino acids (N-terminus) of Human ACE2 (ab108252; Abcam; 1:100), depending on the experiment.

    Techniques: Expressing, Fluorescence

    Binding of fluorescent SARS-CoV-2 spike-AF647 in ACE2 positive cells in a panel of human tissues. Representative confocal fluorescent images (n ≥ 2 independent donors, stained in duplicate) of human tissue fixed in 4% formaldehyde and treated with ACE2 poly (left column, visualised in green) and 1 µM spike-AF647 (centre column, visualised in red). Merged images (right column, overlay) also include Hoechst 33342 nuclear marker (visualised in blue). Scale bars are as indicated in figure. Tissues shown include: ( a ) Kidney cortex; ( b ) Kidney medulla; ( c ) Left ventricle heart tissue, showing cardiomyocytes; ( d ) Lung tissue, showing an airway structure; ( e ) Liver bile duct; ( f ) Liver hepatocytes.

    Journal: Scientific Reports

    Article Title: Differential expression in humans of the viral entry receptor ACE2 compared with the short delta ACE2 isoform lacking SARS-CoV-2 binding sites

    doi: 10.1038/s41598-021-03731-9

    Figure Lengend Snippet: Binding of fluorescent SARS-CoV-2 spike-AF647 in ACE2 positive cells in a panel of human tissues. Representative confocal fluorescent images (n ≥ 2 independent donors, stained in duplicate) of human tissue fixed in 4% formaldehyde and treated with ACE2 poly (left column, visualised in green) and 1 µM spike-AF647 (centre column, visualised in red). Merged images (right column, overlay) also include Hoechst 33342 nuclear marker (visualised in blue). Scale bars are as indicated in figure. Tissues shown include: ( a ) Kidney cortex; ( b ) Kidney medulla; ( c ) Left ventricle heart tissue, showing cardiomyocytes; ( d ) Lung tissue, showing an airway structure; ( e ) Liver bile duct; ( f ) Liver hepatocytes.

    Article Snippet: Sections were then incubated overnight at 4 °C with ACE2 poly primary goat polyclonal antibody to Human ACE2 (AF933; R&D; 1:100) and/or ACE2 mono primary rabbit monoclonal antibody to a site between 200 and 300 amino acids (N-terminus) of Human ACE2 (ab108252; Abcam; 1:100), depending on the experiment.

    Techniques: Binding Assay, Staining, Marker