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recombinant human adamts13  (R&D Systems)


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    R&D Systems recombinant human adamts13
    Fig. 3. Effect of rhADAMTS13 on plasma <t>ADAMTS13</t> activity and vWF-Ag balance and coagulation function in AKI-F mice. (A) Experimental design of treatment with rhADAMTS13 against AKI-F mice. (B) Body weight at the end of experiment. (C and D) Plasma ADAMTS13 activity (C) and plasma vWF-Ag level (D). The values are indicated as % NC group. (E) Pearson’s correlation between plasma ADAMTS13 activity and vWF-Ag level in all of experimental mice. (F) Multimer distribution and the ratios of high (H) to low (L) molecular weight of vWF multimers. (G and H) Platelet count and plasma D-dimer level. Data are the mean ± SD, and *: p < 0.05, **: p < 0.01 with significant difference between groups by Student’s t-test (n = 9; B − D, G and H) or Mann−Whitney U test (n = 3; F). NC, normal control without CCl4 and LPS administration; AKI-F, acute kidney injury mice with advanced liver fibrosis.
    Recombinant Human Adamts13, supplied by R&D Systems, used in various techniques. Bioz Stars score: 93/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
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    1) Product Images from "Recombinant human ADAMTS13 attenuates LPS-induced acute kidney injury and renal microangiopathy in murine advanced liver fibrosis by cleaving vWF."

    Article Title: Recombinant human ADAMTS13 attenuates LPS-induced acute kidney injury and renal microangiopathy in murine advanced liver fibrosis by cleaving vWF.

    Journal: Biochimica et biophysica acta. Molecular cell research

    doi: 10.1016/j.bbamcr.2025.120000

    Fig. 3. Effect of rhADAMTS13 on plasma ADAMTS13 activity and vWF-Ag balance and coagulation function in AKI-F mice. (A) Experimental design of treatment with rhADAMTS13 against AKI-F mice. (B) Body weight at the end of experiment. (C and D) Plasma ADAMTS13 activity (C) and plasma vWF-Ag level (D). The values are indicated as % NC group. (E) Pearson’s correlation between plasma ADAMTS13 activity and vWF-Ag level in all of experimental mice. (F) Multimer distribution and the ratios of high (H) to low (L) molecular weight of vWF multimers. (G and H) Platelet count and plasma D-dimer level. Data are the mean ± SD, and *: p < 0.05, **: p < 0.01 with significant difference between groups by Student’s t-test (n = 9; B − D, G and H) or Mann−Whitney U test (n = 3; F). NC, normal control without CCl4 and LPS administration; AKI-F, acute kidney injury mice with advanced liver fibrosis.
    Figure Legend Snippet: Fig. 3. Effect of rhADAMTS13 on plasma ADAMTS13 activity and vWF-Ag balance and coagulation function in AKI-F mice. (A) Experimental design of treatment with rhADAMTS13 against AKI-F mice. (B) Body weight at the end of experiment. (C and D) Plasma ADAMTS13 activity (C) and plasma vWF-Ag level (D). The values are indicated as % NC group. (E) Pearson’s correlation between plasma ADAMTS13 activity and vWF-Ag level in all of experimental mice. (F) Multimer distribution and the ratios of high (H) to low (L) molecular weight of vWF multimers. (G and H) Platelet count and plasma D-dimer level. Data are the mean ± SD, and *: p < 0.05, **: p < 0.01 with significant difference between groups by Student’s t-test (n = 9; B − D, G and H) or Mann−Whitney U test (n = 3; F). NC, normal control without CCl4 and LPS administration; AKI-F, acute kidney injury mice with advanced liver fibrosis.

    Techniques Used: Clinical Proteomics, Activity Assay, Coagulation, Molecular Weight, MANN-WHITNEY, Control

    Fig. 4. Effect of rADAMTS13 on liver damage and hepatic ischemia in in AKI-F mice. (A and B) Hepatic ADAMTS13 (A) and vWF (B) levels. The values are indicated as % NC group. (C) Pearson’s correlation between hepatic ADAMTS13 and vWF levels in all of experimental mice. (D) Microvascular blood flow in the liver tissue. The values are indicated as the ratio to control. (E and F) Serum levels of transaminases and total bilirubin (T-bil) (E) and albumin (Alb) (F) at the end of experiment. (H) Representative photographs of H&E and Sirius-Red staining in liver tissue. (G) Ratio of liver to body weight at the end of experiment. (I) Quantification of necrotic regions in liver tissue based on H&E staining. The values are indicated as % necrotic area in high power field. (J) Quantification of fibrotic area in liver tissue based on Sirius-Red staining. The values are indicated as the ratio to control. Data are the mean ± SD, and *: p < 0.05, **: p < 0.01 with significant difference between groups by Student’s t-test (n = 9; A, B, D-G, I, and J). NC, normal control without CCl4 and LPS administration; AKI-F, acute kidney injury mice with advanced liver fibrosis; rAD, recombinant ADAMTS13; AST, aspartate transaminase; ALT, alanine aminotransferase. (For interpretation of the references to colour in this figure legend, the reader is referred to the web version of this article.)
    Figure Legend Snippet: Fig. 4. Effect of rADAMTS13 on liver damage and hepatic ischemia in in AKI-F mice. (A and B) Hepatic ADAMTS13 (A) and vWF (B) levels. The values are indicated as % NC group. (C) Pearson’s correlation between hepatic ADAMTS13 and vWF levels in all of experimental mice. (D) Microvascular blood flow in the liver tissue. The values are indicated as the ratio to control. (E and F) Serum levels of transaminases and total bilirubin (T-bil) (E) and albumin (Alb) (F) at the end of experiment. (H) Representative photographs of H&E and Sirius-Red staining in liver tissue. (G) Ratio of liver to body weight at the end of experiment. (I) Quantification of necrotic regions in liver tissue based on H&E staining. The values are indicated as % necrotic area in high power field. (J) Quantification of fibrotic area in liver tissue based on Sirius-Red staining. The values are indicated as the ratio to control. Data are the mean ± SD, and *: p < 0.05, **: p < 0.01 with significant difference between groups by Student’s t-test (n = 9; A, B, D-G, I, and J). NC, normal control without CCl4 and LPS administration; AKI-F, acute kidney injury mice with advanced liver fibrosis; rAD, recombinant ADAMTS13; AST, aspartate transaminase; ALT, alanine aminotransferase. (For interpretation of the references to colour in this figure legend, the reader is referred to the web version of this article.)

    Techniques Used: Control, Staining, Recombinant

    Fig. 5. Effect of rADAMTS13 on hepatic macrophage infiltration and oxidative damage in AKI-F mice. (A) Representative photographs of F4/80 staining in liver tissue. (B) Quantification of F4/80-positive macrophage in liver tissue. (C) Hepatic mRNA levels of proinflammatory cytokines (Tnfa, Il1b and Il6). (D) Representative photographs of 4-hydroxynonenal (4-HNE) staining in liver tissue. (E) Quantification of 4-HNE-positive area in liver tissue. (F) Hepatic mRNA levels of NADPH oxidases (Nox1, Nox2 and Nox4). DAPI was used as nuclear staining (A and D). Gapdh was used as an internal control for qRT-PCR (C and F). The values are indicated as the ratio to NC group (B, C, E, and F). Data are the mean ± SD, and *: p < 0.05, **: p < 0.01 with significant difference between groups by Student’s t-test (n = 9; B, C, E, and F). NC, normal control without CCl4 and LPS administration; AKI-F, acute kidney injury mice with advanced liver fibrosis; rAD, recombinant ADAMTS13.
    Figure Legend Snippet: Fig. 5. Effect of rADAMTS13 on hepatic macrophage infiltration and oxidative damage in AKI-F mice. (A) Representative photographs of F4/80 staining in liver tissue. (B) Quantification of F4/80-positive macrophage in liver tissue. (C) Hepatic mRNA levels of proinflammatory cytokines (Tnfa, Il1b and Il6). (D) Representative photographs of 4-hydroxynonenal (4-HNE) staining in liver tissue. (E) Quantification of 4-HNE-positive area in liver tissue. (F) Hepatic mRNA levels of NADPH oxidases (Nox1, Nox2 and Nox4). DAPI was used as nuclear staining (A and D). Gapdh was used as an internal control for qRT-PCR (C and F). The values are indicated as the ratio to NC group (B, C, E, and F). Data are the mean ± SD, and *: p < 0.05, **: p < 0.01 with significant difference between groups by Student’s t-test (n = 9; B, C, E, and F). NC, normal control without CCl4 and LPS administration; AKI-F, acute kidney injury mice with advanced liver fibrosis; rAD, recombinant ADAMTS13.

    Techniques Used: Staining, Control, Quantitative RT-PCR, Recombinant

    Fig. 6. Effect of rADAMTS13 on renal microthrombus and microangiopathy in AKI-F mice. (A) Renal ADAMTS13 (A) and vWF (B) levels. The values are indicated as % NC group. (C) Pearson’s correlation between renal ADAMTS13 and vWF levels in all of experimental mice. (D) Representative photographs of CD41a staining in kidney tissue of NC, D + 2, D + 3 (with and without treatment with rhADAMTS13) groups. (E) Quantification of CD41a+ microthrombus in kidney tissues. DAPI was used as nuclear staining. (F) Microvascular blood flow in the bilateral kidney tissues. (G) Renal mRNA levels of angiogenic factors (Hif1a, Vegfa, Vegfr2, Angpt1, and Tie2). (H) Renal mRNA levels of vascular inflammation markers (Vcam1, Icam1, Sele, and Selp). Gapdh was used as an internal control for qRT-PCR (G and H). The values are indicated as the ratio to NC group (E − H). Data are the mean ± SD, and *: p < 0.05, **: p < 0.01 with significant difference between groups by Student’s t-test (n = 9; A, B, F −H, n = 6; E). NC, normal control without CCl4 and LPS administration; AKI-F, acute kidney injury mice with advanced liver fibrosis; rAD, recombinant ADAMTS13.
    Figure Legend Snippet: Fig. 6. Effect of rADAMTS13 on renal microthrombus and microangiopathy in AKI-F mice. (A) Renal ADAMTS13 (A) and vWF (B) levels. The values are indicated as % NC group. (C) Pearson’s correlation between renal ADAMTS13 and vWF levels in all of experimental mice. (D) Representative photographs of CD41a staining in kidney tissue of NC, D + 2, D + 3 (with and without treatment with rhADAMTS13) groups. (E) Quantification of CD41a+ microthrombus in kidney tissues. DAPI was used as nuclear staining. (F) Microvascular blood flow in the bilateral kidney tissues. (G) Renal mRNA levels of angiogenic factors (Hif1a, Vegfa, Vegfr2, Angpt1, and Tie2). (H) Renal mRNA levels of vascular inflammation markers (Vcam1, Icam1, Sele, and Selp). Gapdh was used as an internal control for qRT-PCR (G and H). The values are indicated as the ratio to NC group (E − H). Data are the mean ± SD, and *: p < 0.05, **: p < 0.01 with significant difference between groups by Student’s t-test (n = 9; A, B, F −H, n = 6; E). NC, normal control without CCl4 and LPS administration; AKI-F, acute kidney injury mice with advanced liver fibrosis; rAD, recombinant ADAMTS13.

    Techniques Used: Staining, Control, Quantitative RT-PCR, Recombinant

    Fig. 7. Effect of rADAMTS13 on kidney damage in cirrhotic mice with AKI. (A-E) Serum level of kidney injury markers including BUN (A), Scr (B), KIM-1 (C), osteopontin (OPN) (D), and neutrophil gelatinase-associated lipocalin (NGAL) (E). (F) Ratio of bilateral kidneys to body weight at the end of experiment. (G) Representative photographs of H&E, PAS and KIM-1 staining in kidney tissue. (H) Kidney injury score based on both H&E and PAS staining. (I) Quantification of KIM- 1-positive area in kidney tissue. (J) Renal mRNA levels of kidney injury markers (Havcr1 and Vim). Gapdh was used as an internal control for qRT-PCR (J). The values are indicated as the ratio to NC group (F, I, and J). Data are the mean ± SD, and *: p < 0.05, **: p < 0.01 with significant difference between groups by Student’s t- test (n = 9; A-F and H-J). NC, normal control without CCl4 and LPS administration; AKI-F, acute kidney injury mice with advanced liver fibrosis; rAD, recombi nant ADAMTS13.
    Figure Legend Snippet: Fig. 7. Effect of rADAMTS13 on kidney damage in cirrhotic mice with AKI. (A-E) Serum level of kidney injury markers including BUN (A), Scr (B), KIM-1 (C), osteopontin (OPN) (D), and neutrophil gelatinase-associated lipocalin (NGAL) (E). (F) Ratio of bilateral kidneys to body weight at the end of experiment. (G) Representative photographs of H&E, PAS and KIM-1 staining in kidney tissue. (H) Kidney injury score based on both H&E and PAS staining. (I) Quantification of KIM- 1-positive area in kidney tissue. (J) Renal mRNA levels of kidney injury markers (Havcr1 and Vim). Gapdh was used as an internal control for qRT-PCR (J). The values are indicated as the ratio to NC group (F, I, and J). Data are the mean ± SD, and *: p < 0.05, **: p < 0.01 with significant difference between groups by Student’s t- test (n = 9; A-F and H-J). NC, normal control without CCl4 and LPS administration; AKI-F, acute kidney injury mice with advanced liver fibrosis; rAD, recombi nant ADAMTS13.

    Techniques Used: Staining, Control, Quantitative RT-PCR

    Fig. 8. Effect of rADAMTS13 on renal macrophage infiltration, oxidative damage and fibrosis in cirrhotic mice with AKI. (A) Representative photographs of F4/80 and 4-HNE staining in kidney tissue. (B and C) Quantification of F4/80 (B) and 4-HNE (C)-positive area in kidney tissue. (D) Renal mRNA levels of proinflammatory cytokines (Tnfa, Il1b and Il6). (E-G) Renal mRNA levels of NADPH oxidases (Nox2 and Nox4) (E), antioxidant enzymes (Sod2 and Cat) (F) and Hmox1 (G). (H) Representative photographs of Sirius-Red staining in kidney tissue. (I) Quantification of fibrotic area in kidney tissue based on Sirius-Red staining. (J) Renal mRNA levels of fibrogenic markers (Col1a1, Acta2, and Tgfb1). DAPI was used as nuclear staining (A). Gapdh was used as an internal control for qRT-PCR (D, E and J). The values are indicated as the ratio to NC group (B-G, I, and J). Data are the mean ± SD, and *: p < 0.05, **: p < 0.01 with significant difference between groups by Student’s t-test (n = 9; B-G, I, and J). NC, normal control without CCl4 and LPS administration; AKI-F, acute kidney injury mice with advanced liver fibrosis; rAD, recombinant ADAMTS13. (For interpretation of the references to colour in this figure legend, the reader is referred to the web version of this article.)
    Figure Legend Snippet: Fig. 8. Effect of rADAMTS13 on renal macrophage infiltration, oxidative damage and fibrosis in cirrhotic mice with AKI. (A) Representative photographs of F4/80 and 4-HNE staining in kidney tissue. (B and C) Quantification of F4/80 (B) and 4-HNE (C)-positive area in kidney tissue. (D) Renal mRNA levels of proinflammatory cytokines (Tnfa, Il1b and Il6). (E-G) Renal mRNA levels of NADPH oxidases (Nox2 and Nox4) (E), antioxidant enzymes (Sod2 and Cat) (F) and Hmox1 (G). (H) Representative photographs of Sirius-Red staining in kidney tissue. (I) Quantification of fibrotic area in kidney tissue based on Sirius-Red staining. (J) Renal mRNA levels of fibrogenic markers (Col1a1, Acta2, and Tgfb1). DAPI was used as nuclear staining (A). Gapdh was used as an internal control for qRT-PCR (D, E and J). The values are indicated as the ratio to NC group (B-G, I, and J). Data are the mean ± SD, and *: p < 0.05, **: p < 0.01 with significant difference between groups by Student’s t-test (n = 9; B-G, I, and J). NC, normal control without CCl4 and LPS administration; AKI-F, acute kidney injury mice with advanced liver fibrosis; rAD, recombinant ADAMTS13. (For interpretation of the references to colour in this figure legend, the reader is referred to the web version of this article.)

    Techniques Used: Staining, Control, Quantitative RT-PCR, Recombinant



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    Fig. 3. Effect of rhADAMTS13 on plasma ADAMTS13 activity and vWF-Ag balance and coagulation function in AKI-F mice. (A) Experimental design of treatment with rhADAMTS13 against AKI-F mice. (B) Body weight at the end of experiment. (C and D) Plasma ADAMTS13 activity (C) and plasma vWF-Ag level (D). The values are indicated as % NC group. (E) Pearson’s correlation between plasma ADAMTS13 activity and vWF-Ag level in all of experimental mice. (F) Multimer distribution and the ratios of high (H) to low (L) molecular weight of vWF multimers. (G and H) Platelet count and plasma D-dimer level. Data are the mean ± SD, and *: p < 0.05, **: p < 0.01 with significant difference between groups by Student’s t-test (n = 9; B − D, G and H) or Mann−Whitney U test (n = 3; F). NC, normal control without CCl4 and LPS administration; AKI-F, acute kidney injury mice with advanced liver fibrosis.

    Journal: Biochimica et biophysica acta. Molecular cell research

    Article Title: Recombinant human ADAMTS13 attenuates LPS-induced acute kidney injury and renal microangiopathy in murine advanced liver fibrosis by cleaving vWF.

    doi: 10.1016/j.bbamcr.2025.120000

    Figure Lengend Snippet: Fig. 3. Effect of rhADAMTS13 on plasma ADAMTS13 activity and vWF-Ag balance and coagulation function in AKI-F mice. (A) Experimental design of treatment with rhADAMTS13 against AKI-F mice. (B) Body weight at the end of experiment. (C and D) Plasma ADAMTS13 activity (C) and plasma vWF-Ag level (D). The values are indicated as % NC group. (E) Pearson’s correlation between plasma ADAMTS13 activity and vWF-Ag level in all of experimental mice. (F) Multimer distribution and the ratios of high (H) to low (L) molecular weight of vWF multimers. (G and H) Platelet count and plasma D-dimer level. Data are the mean ± SD, and *: p < 0.05, **: p < 0.01 with significant difference between groups by Student’s t-test (n = 9; B − D, G and H) or Mann−Whitney U test (n = 3; F). NC, normal control without CCl4 and LPS administration; AKI-F, acute kidney injury mice with advanced liver fibrosis.

    Article Snippet: Recombinant Human ADAMTS13 (Full Length) Protein, Carrier-free used as rhADAMTS13 was obtained from R&D systems (Minneapolis, MN, USA).

    Techniques: Clinical Proteomics, Activity Assay, Coagulation, Molecular Weight, MANN-WHITNEY, Control

    Fig. 4. Effect of rADAMTS13 on liver damage and hepatic ischemia in in AKI-F mice. (A and B) Hepatic ADAMTS13 (A) and vWF (B) levels. The values are indicated as % NC group. (C) Pearson’s correlation between hepatic ADAMTS13 and vWF levels in all of experimental mice. (D) Microvascular blood flow in the liver tissue. The values are indicated as the ratio to control. (E and F) Serum levels of transaminases and total bilirubin (T-bil) (E) and albumin (Alb) (F) at the end of experiment. (H) Representative photographs of H&E and Sirius-Red staining in liver tissue. (G) Ratio of liver to body weight at the end of experiment. (I) Quantification of necrotic regions in liver tissue based on H&E staining. The values are indicated as % necrotic area in high power field. (J) Quantification of fibrotic area in liver tissue based on Sirius-Red staining. The values are indicated as the ratio to control. Data are the mean ± SD, and *: p < 0.05, **: p < 0.01 with significant difference between groups by Student’s t-test (n = 9; A, B, D-G, I, and J). NC, normal control without CCl4 and LPS administration; AKI-F, acute kidney injury mice with advanced liver fibrosis; rAD, recombinant ADAMTS13; AST, aspartate transaminase; ALT, alanine aminotransferase. (For interpretation of the references to colour in this figure legend, the reader is referred to the web version of this article.)

    Journal: Biochimica et biophysica acta. Molecular cell research

    Article Title: Recombinant human ADAMTS13 attenuates LPS-induced acute kidney injury and renal microangiopathy in murine advanced liver fibrosis by cleaving vWF.

    doi: 10.1016/j.bbamcr.2025.120000

    Figure Lengend Snippet: Fig. 4. Effect of rADAMTS13 on liver damage and hepatic ischemia in in AKI-F mice. (A and B) Hepatic ADAMTS13 (A) and vWF (B) levels. The values are indicated as % NC group. (C) Pearson’s correlation between hepatic ADAMTS13 and vWF levels in all of experimental mice. (D) Microvascular blood flow in the liver tissue. The values are indicated as the ratio to control. (E and F) Serum levels of transaminases and total bilirubin (T-bil) (E) and albumin (Alb) (F) at the end of experiment. (H) Representative photographs of H&E and Sirius-Red staining in liver tissue. (G) Ratio of liver to body weight at the end of experiment. (I) Quantification of necrotic regions in liver tissue based on H&E staining. The values are indicated as % necrotic area in high power field. (J) Quantification of fibrotic area in liver tissue based on Sirius-Red staining. The values are indicated as the ratio to control. Data are the mean ± SD, and *: p < 0.05, **: p < 0.01 with significant difference between groups by Student’s t-test (n = 9; A, B, D-G, I, and J). NC, normal control without CCl4 and LPS administration; AKI-F, acute kidney injury mice with advanced liver fibrosis; rAD, recombinant ADAMTS13; AST, aspartate transaminase; ALT, alanine aminotransferase. (For interpretation of the references to colour in this figure legend, the reader is referred to the web version of this article.)

    Article Snippet: Recombinant Human ADAMTS13 (Full Length) Protein, Carrier-free used as rhADAMTS13 was obtained from R&D systems (Minneapolis, MN, USA).

    Techniques: Control, Staining, Recombinant

    Fig. 5. Effect of rADAMTS13 on hepatic macrophage infiltration and oxidative damage in AKI-F mice. (A) Representative photographs of F4/80 staining in liver tissue. (B) Quantification of F4/80-positive macrophage in liver tissue. (C) Hepatic mRNA levels of proinflammatory cytokines (Tnfa, Il1b and Il6). (D) Representative photographs of 4-hydroxynonenal (4-HNE) staining in liver tissue. (E) Quantification of 4-HNE-positive area in liver tissue. (F) Hepatic mRNA levels of NADPH oxidases (Nox1, Nox2 and Nox4). DAPI was used as nuclear staining (A and D). Gapdh was used as an internal control for qRT-PCR (C and F). The values are indicated as the ratio to NC group (B, C, E, and F). Data are the mean ± SD, and *: p < 0.05, **: p < 0.01 with significant difference between groups by Student’s t-test (n = 9; B, C, E, and F). NC, normal control without CCl4 and LPS administration; AKI-F, acute kidney injury mice with advanced liver fibrosis; rAD, recombinant ADAMTS13.

    Journal: Biochimica et biophysica acta. Molecular cell research

    Article Title: Recombinant human ADAMTS13 attenuates LPS-induced acute kidney injury and renal microangiopathy in murine advanced liver fibrosis by cleaving vWF.

    doi: 10.1016/j.bbamcr.2025.120000

    Figure Lengend Snippet: Fig. 5. Effect of rADAMTS13 on hepatic macrophage infiltration and oxidative damage in AKI-F mice. (A) Representative photographs of F4/80 staining in liver tissue. (B) Quantification of F4/80-positive macrophage in liver tissue. (C) Hepatic mRNA levels of proinflammatory cytokines (Tnfa, Il1b and Il6). (D) Representative photographs of 4-hydroxynonenal (4-HNE) staining in liver tissue. (E) Quantification of 4-HNE-positive area in liver tissue. (F) Hepatic mRNA levels of NADPH oxidases (Nox1, Nox2 and Nox4). DAPI was used as nuclear staining (A and D). Gapdh was used as an internal control for qRT-PCR (C and F). The values are indicated as the ratio to NC group (B, C, E, and F). Data are the mean ± SD, and *: p < 0.05, **: p < 0.01 with significant difference between groups by Student’s t-test (n = 9; B, C, E, and F). NC, normal control without CCl4 and LPS administration; AKI-F, acute kidney injury mice with advanced liver fibrosis; rAD, recombinant ADAMTS13.

    Article Snippet: Recombinant Human ADAMTS13 (Full Length) Protein, Carrier-free used as rhADAMTS13 was obtained from R&D systems (Minneapolis, MN, USA).

    Techniques: Staining, Control, Quantitative RT-PCR, Recombinant

    Fig. 6. Effect of rADAMTS13 on renal microthrombus and microangiopathy in AKI-F mice. (A) Renal ADAMTS13 (A) and vWF (B) levels. The values are indicated as % NC group. (C) Pearson’s correlation between renal ADAMTS13 and vWF levels in all of experimental mice. (D) Representative photographs of CD41a staining in kidney tissue of NC, D + 2, D + 3 (with and without treatment with rhADAMTS13) groups. (E) Quantification of CD41a+ microthrombus in kidney tissues. DAPI was used as nuclear staining. (F) Microvascular blood flow in the bilateral kidney tissues. (G) Renal mRNA levels of angiogenic factors (Hif1a, Vegfa, Vegfr2, Angpt1, and Tie2). (H) Renal mRNA levels of vascular inflammation markers (Vcam1, Icam1, Sele, and Selp). Gapdh was used as an internal control for qRT-PCR (G and H). The values are indicated as the ratio to NC group (E − H). Data are the mean ± SD, and *: p < 0.05, **: p < 0.01 with significant difference between groups by Student’s t-test (n = 9; A, B, F −H, n = 6; E). NC, normal control without CCl4 and LPS administration; AKI-F, acute kidney injury mice with advanced liver fibrosis; rAD, recombinant ADAMTS13.

    Journal: Biochimica et biophysica acta. Molecular cell research

    Article Title: Recombinant human ADAMTS13 attenuates LPS-induced acute kidney injury and renal microangiopathy in murine advanced liver fibrosis by cleaving vWF.

    doi: 10.1016/j.bbamcr.2025.120000

    Figure Lengend Snippet: Fig. 6. Effect of rADAMTS13 on renal microthrombus and microangiopathy in AKI-F mice. (A) Renal ADAMTS13 (A) and vWF (B) levels. The values are indicated as % NC group. (C) Pearson’s correlation between renal ADAMTS13 and vWF levels in all of experimental mice. (D) Representative photographs of CD41a staining in kidney tissue of NC, D + 2, D + 3 (with and without treatment with rhADAMTS13) groups. (E) Quantification of CD41a+ microthrombus in kidney tissues. DAPI was used as nuclear staining. (F) Microvascular blood flow in the bilateral kidney tissues. (G) Renal mRNA levels of angiogenic factors (Hif1a, Vegfa, Vegfr2, Angpt1, and Tie2). (H) Renal mRNA levels of vascular inflammation markers (Vcam1, Icam1, Sele, and Selp). Gapdh was used as an internal control for qRT-PCR (G and H). The values are indicated as the ratio to NC group (E − H). Data are the mean ± SD, and *: p < 0.05, **: p < 0.01 with significant difference between groups by Student’s t-test (n = 9; A, B, F −H, n = 6; E). NC, normal control without CCl4 and LPS administration; AKI-F, acute kidney injury mice with advanced liver fibrosis; rAD, recombinant ADAMTS13.

    Article Snippet: Recombinant Human ADAMTS13 (Full Length) Protein, Carrier-free used as rhADAMTS13 was obtained from R&D systems (Minneapolis, MN, USA).

    Techniques: Staining, Control, Quantitative RT-PCR, Recombinant

    Fig. 7. Effect of rADAMTS13 on kidney damage in cirrhotic mice with AKI. (A-E) Serum level of kidney injury markers including BUN (A), Scr (B), KIM-1 (C), osteopontin (OPN) (D), and neutrophil gelatinase-associated lipocalin (NGAL) (E). (F) Ratio of bilateral kidneys to body weight at the end of experiment. (G) Representative photographs of H&E, PAS and KIM-1 staining in kidney tissue. (H) Kidney injury score based on both H&E and PAS staining. (I) Quantification of KIM- 1-positive area in kidney tissue. (J) Renal mRNA levels of kidney injury markers (Havcr1 and Vim). Gapdh was used as an internal control for qRT-PCR (J). The values are indicated as the ratio to NC group (F, I, and J). Data are the mean ± SD, and *: p < 0.05, **: p < 0.01 with significant difference between groups by Student’s t- test (n = 9; A-F and H-J). NC, normal control without CCl4 and LPS administration; AKI-F, acute kidney injury mice with advanced liver fibrosis; rAD, recombi nant ADAMTS13.

    Journal: Biochimica et biophysica acta. Molecular cell research

    Article Title: Recombinant human ADAMTS13 attenuates LPS-induced acute kidney injury and renal microangiopathy in murine advanced liver fibrosis by cleaving vWF.

    doi: 10.1016/j.bbamcr.2025.120000

    Figure Lengend Snippet: Fig. 7. Effect of rADAMTS13 on kidney damage in cirrhotic mice with AKI. (A-E) Serum level of kidney injury markers including BUN (A), Scr (B), KIM-1 (C), osteopontin (OPN) (D), and neutrophil gelatinase-associated lipocalin (NGAL) (E). (F) Ratio of bilateral kidneys to body weight at the end of experiment. (G) Representative photographs of H&E, PAS and KIM-1 staining in kidney tissue. (H) Kidney injury score based on both H&E and PAS staining. (I) Quantification of KIM- 1-positive area in kidney tissue. (J) Renal mRNA levels of kidney injury markers (Havcr1 and Vim). Gapdh was used as an internal control for qRT-PCR (J). The values are indicated as the ratio to NC group (F, I, and J). Data are the mean ± SD, and *: p < 0.05, **: p < 0.01 with significant difference between groups by Student’s t- test (n = 9; A-F and H-J). NC, normal control without CCl4 and LPS administration; AKI-F, acute kidney injury mice with advanced liver fibrosis; rAD, recombi nant ADAMTS13.

    Article Snippet: Recombinant Human ADAMTS13 (Full Length) Protein, Carrier-free used as rhADAMTS13 was obtained from R&D systems (Minneapolis, MN, USA).

    Techniques: Staining, Control, Quantitative RT-PCR

    Fig. 8. Effect of rADAMTS13 on renal macrophage infiltration, oxidative damage and fibrosis in cirrhotic mice with AKI. (A) Representative photographs of F4/80 and 4-HNE staining in kidney tissue. (B and C) Quantification of F4/80 (B) and 4-HNE (C)-positive area in kidney tissue. (D) Renal mRNA levels of proinflammatory cytokines (Tnfa, Il1b and Il6). (E-G) Renal mRNA levels of NADPH oxidases (Nox2 and Nox4) (E), antioxidant enzymes (Sod2 and Cat) (F) and Hmox1 (G). (H) Representative photographs of Sirius-Red staining in kidney tissue. (I) Quantification of fibrotic area in kidney tissue based on Sirius-Red staining. (J) Renal mRNA levels of fibrogenic markers (Col1a1, Acta2, and Tgfb1). DAPI was used as nuclear staining (A). Gapdh was used as an internal control for qRT-PCR (D, E and J). The values are indicated as the ratio to NC group (B-G, I, and J). Data are the mean ± SD, and *: p < 0.05, **: p < 0.01 with significant difference between groups by Student’s t-test (n = 9; B-G, I, and J). NC, normal control without CCl4 and LPS administration; AKI-F, acute kidney injury mice with advanced liver fibrosis; rAD, recombinant ADAMTS13. (For interpretation of the references to colour in this figure legend, the reader is referred to the web version of this article.)

    Journal: Biochimica et biophysica acta. Molecular cell research

    Article Title: Recombinant human ADAMTS13 attenuates LPS-induced acute kidney injury and renal microangiopathy in murine advanced liver fibrosis by cleaving vWF.

    doi: 10.1016/j.bbamcr.2025.120000

    Figure Lengend Snippet: Fig. 8. Effect of rADAMTS13 on renal macrophage infiltration, oxidative damage and fibrosis in cirrhotic mice with AKI. (A) Representative photographs of F4/80 and 4-HNE staining in kidney tissue. (B and C) Quantification of F4/80 (B) and 4-HNE (C)-positive area in kidney tissue. (D) Renal mRNA levels of proinflammatory cytokines (Tnfa, Il1b and Il6). (E-G) Renal mRNA levels of NADPH oxidases (Nox2 and Nox4) (E), antioxidant enzymes (Sod2 and Cat) (F) and Hmox1 (G). (H) Representative photographs of Sirius-Red staining in kidney tissue. (I) Quantification of fibrotic area in kidney tissue based on Sirius-Red staining. (J) Renal mRNA levels of fibrogenic markers (Col1a1, Acta2, and Tgfb1). DAPI was used as nuclear staining (A). Gapdh was used as an internal control for qRT-PCR (D, E and J). The values are indicated as the ratio to NC group (B-G, I, and J). Data are the mean ± SD, and *: p < 0.05, **: p < 0.01 with significant difference between groups by Student’s t-test (n = 9; B-G, I, and J). NC, normal control without CCl4 and LPS administration; AKI-F, acute kidney injury mice with advanced liver fibrosis; rAD, recombinant ADAMTS13. (For interpretation of the references to colour in this figure legend, the reader is referred to the web version of this article.)

    Article Snippet: Recombinant Human ADAMTS13 (Full Length) Protein, Carrier-free used as rhADAMTS13 was obtained from R&D systems (Minneapolis, MN, USA).

    Techniques: Staining, Control, Quantitative RT-PCR, Recombinant

    Comparison of therapeutic efficacy of GC1126A, rh WT-ADAMTS13, and caplacizumab in mitigating platelet count reduction in the iTTP-mimic mouse model. ( a ) Study design for therapeutic efficacy comparison. ( b ) Platelet count results. ( c ) Residual activity of ADAMTS13 in the plasma of an iTTP-mimic mouse model. Values below the limit (0.03 IU/mL) are also not present on the graph. ( d ) Inhibitory antibody levels (BU levels). Values below the limit (0.42 BU/mL) are also not present on the graph. ( b )–( d ) Outliers were identified using the Grubbs’ test (α = 0.05) and excluded from each group. Each bar represents the mean and standard error of the mean ( n = 4 mice per group).

    Journal: Scientific Reports

    Article Title: GC1126A, a novel ADAMTS13 mutein, evades autoantibodies in immune-mediated thrombotic thrombocytopenic purpura

    doi: 10.1038/s41598-024-80674-x

    Figure Lengend Snippet: Comparison of therapeutic efficacy of GC1126A, rh WT-ADAMTS13, and caplacizumab in mitigating platelet count reduction in the iTTP-mimic mouse model. ( a ) Study design for therapeutic efficacy comparison. ( b ) Platelet count results. ( c ) Residual activity of ADAMTS13 in the plasma of an iTTP-mimic mouse model. Values below the limit (0.03 IU/mL) are also not present on the graph. ( d ) Inhibitory antibody levels (BU levels). Values below the limit (0.42 BU/mL) are also not present on the graph. ( b )–( d ) Outliers were identified using the Grubbs’ test (α = 0.05) and excluded from each group. Each bar represents the mean and standard error of the mean ( n = 4 mice per group).

    Article Snippet: The recombinant human ADAMTS13 (full-length) protein (rhADAMTS13 FL; R&D Systems, Minnesota, USA) served as the antigen.

    Techniques: Comparison, Drug discovery, Activity Assay, Clinical Proteomics

    Comparison of therapeutic efficacy of GC1126A, rh WT-ADAMTS13, and caplacizumab in restoring severely reduced platelet counts in the iTTP-mimic mouse model. ( a ) Study design for therapeutic efficacy comparison. ( b ) Platelet count results. Outliers were identified using the Grubbs’ test (α = 0.05) and excluded from each group. Each bar represents the mean and standard error of the mean ( n = 3–10 mice per group).

    Journal: Scientific Reports

    Article Title: GC1126A, a novel ADAMTS13 mutein, evades autoantibodies in immune-mediated thrombotic thrombocytopenic purpura

    doi: 10.1038/s41598-024-80674-x

    Figure Lengend Snippet: Comparison of therapeutic efficacy of GC1126A, rh WT-ADAMTS13, and caplacizumab in restoring severely reduced platelet counts in the iTTP-mimic mouse model. ( a ) Study design for therapeutic efficacy comparison. ( b ) Platelet count results. Outliers were identified using the Grubbs’ test (α = 0.05) and excluded from each group. Each bar represents the mean and standard error of the mean ( n = 3–10 mice per group).

    Article Snippet: The recombinant human ADAMTS13 (full-length) protein (rhADAMTS13 FL; R&D Systems, Minnesota, USA) served as the antigen.

    Techniques: Comparison, Drug discovery

    The process and outcomes of candidate screening and the pharmacokinetic profile of candidates. ( a ) The diagram shows the binding domains of anti-ADAMTS13 neutralizing antibodies (Nabs). ( b ) The strategy and process of candidate screening. ( c ) The specific activity of selected candidates in the media following transient expression ( n = 1 or 2). ( d ) The relative residual activity of selected candidates in the presence of 9 Nabs ( n = 1 or 2). ( e ) The plasma concentration profiles after the intravenous administration of the selected candidates or controls (MDTCS or MDTCS-Fc) at the dose level of 160 IU/kg. Each point represents the mean and standard error of the mean ( n = 4 mice per time point).

    Journal: Scientific Reports

    Article Title: GC1126A, a novel ADAMTS13 mutein, evades autoantibodies in immune-mediated thrombotic thrombocytopenic purpura

    doi: 10.1038/s41598-024-80674-x

    Figure Lengend Snippet: The process and outcomes of candidate screening and the pharmacokinetic profile of candidates. ( a ) The diagram shows the binding domains of anti-ADAMTS13 neutralizing antibodies (Nabs). ( b ) The strategy and process of candidate screening. ( c ) The specific activity of selected candidates in the media following transient expression ( n = 1 or 2). ( d ) The relative residual activity of selected candidates in the presence of 9 Nabs ( n = 1 or 2). ( e ) The plasma concentration profiles after the intravenous administration of the selected candidates or controls (MDTCS or MDTCS-Fc) at the dose level of 160 IU/kg. Each point represents the mean and standard error of the mean ( n = 4 mice per time point).

    Article Snippet: The recombinant human ADAMTS13 (full-length) protein (rhADAMTS13 FL; R&D Systems, Minnesota, USA) served as the antigen.

    Techniques: Binding Assay, Activity Assay, Expressing, Clinical Proteomics, Concentration Assay

    Autoantibody escaping ability of GC1126A using the iTTP patient’s plasma. ( a ) Relative residual activity of ADAMTS13 and GC1126A in the presence of autoantibodies from iTTP patient’s plasma ( n = 2). Each patient’s plasma was diluted to inhibitory antibody concentrations of 0.5, 1, 2, and 3 BU/ml. Each diluted plasma was mixed with the same molar concentration (3 nM) of ADAMTS13 or GC1126A. Relative activity is the ratio of activity remaining after neutralizing antibodies in the patient’s plasma to activity when each substance is free of neutralizing antibodies. ( b ) Binding level of autoantibodies from patients with iTTP to ADAMTS13 and GC1126A. Statistical significance was determined using the one-way analysis of variance followed by Tukey’s test (α = 0.05). Each bar represents the mean and standard error of the mean ( n = 3).

    Journal: Scientific Reports

    Article Title: GC1126A, a novel ADAMTS13 mutein, evades autoantibodies in immune-mediated thrombotic thrombocytopenic purpura

    doi: 10.1038/s41598-024-80674-x

    Figure Lengend Snippet: Autoantibody escaping ability of GC1126A using the iTTP patient’s plasma. ( a ) Relative residual activity of ADAMTS13 and GC1126A in the presence of autoantibodies from iTTP patient’s plasma ( n = 2). Each patient’s plasma was diluted to inhibitory antibody concentrations of 0.5, 1, 2, and 3 BU/ml. Each diluted plasma was mixed with the same molar concentration (3 nM) of ADAMTS13 or GC1126A. Relative activity is the ratio of activity remaining after neutralizing antibodies in the patient’s plasma to activity when each substance is free of neutralizing antibodies. ( b ) Binding level of autoantibodies from patients with iTTP to ADAMTS13 and GC1126A. Statistical significance was determined using the one-way analysis of variance followed by Tukey’s test (α = 0.05). Each bar represents the mean and standard error of the mean ( n = 3).

    Article Snippet: The recombinant human ADAMTS13 (full-length) protein (rhADAMTS13 FL; R&D Systems, Minnesota, USA) served as the antigen.

    Techniques: Clinical Proteomics, Activity Assay, Concentration Assay, Binding Assay

    Relationship between the anti-ADAMTS13 inhibitor titer and GC1126A EC50. The distribution of the amount of GC1126A required to achieve 0.5 IU/ml activity (EC50) for different patient samples at inhibitor titers of 0.6–0.9 BU/ml ( n = 4), 1 BU/ml ( n = 23), 3 BU/ml ( n = 15), 6 BU/ml ( n = 9), and 9 BU/ml ( n = 5) (the observed data are shown with closed circles). The estimated regression line and the 95% confidence interval are depicted in solid and dotted lines, respectively. The linear regression analysis yielded the following relationship: EC50 (µg/mL) = 0.0347 + 0.0396 × anti-ADAMTS13 inhibitor titer (BU/mL) (R 2 = 0.5842).

    Journal: Scientific Reports

    Article Title: GC1126A, a novel ADAMTS13 mutein, evades autoantibodies in immune-mediated thrombotic thrombocytopenic purpura

    doi: 10.1038/s41598-024-80674-x

    Figure Lengend Snippet: Relationship between the anti-ADAMTS13 inhibitor titer and GC1126A EC50. The distribution of the amount of GC1126A required to achieve 0.5 IU/ml activity (EC50) for different patient samples at inhibitor titers of 0.6–0.9 BU/ml ( n = 4), 1 BU/ml ( n = 23), 3 BU/ml ( n = 15), 6 BU/ml ( n = 9), and 9 BU/ml ( n = 5) (the observed data are shown with closed circles). The estimated regression line and the 95% confidence interval are depicted in solid and dotted lines, respectively. The linear regression analysis yielded the following relationship: EC50 (µg/mL) = 0.0347 + 0.0396 × anti-ADAMTS13 inhibitor titer (BU/mL) (R 2 = 0.5842).

    Article Snippet: The recombinant human ADAMTS13 (full-length) protein (rhADAMTS13 FL; R&D Systems, Minnesota, USA) served as the antigen.

    Techniques: Activity Assay

    Role of VWF in the binding of T cells. (A) One hundred thousand Jurkat cells (immortalize malignant T lymphocytes) were incubated with HUVECs cells plated on 6‐well plates. After 15 min incubation at 37°C, the number of adhered Jurkat cells in each well was counted using pictures taken with an inverted microscope and compared between histamine‐stimulated and non‐stimulated HUVECs. The effect of recombinant ADAMTS13 (1 mg/mL), recombinant VWF‐A2 (1 mg/mL) and anti‐α L antibodies (1:1000 dilution) on the number of adhered Jurkat cells to histamine‐stimulated HUVECs were compared ( n = 4, each experiment in triplicates). p‐ values were calculated using a one‐way ANOVA test with Dunnett's multiple comparison correction compared to the number of adhered Jurkat cells to histamine‐stimulated HUVECs. * p < 0.05. (B) One hundred thousand Jurkat cells were incubated in VWF‐coated 96‐wells plates for 15 min at 37°C. Jurkat cells, either pre‐stimulated with 200 ng/mL of CCL21 or resting, were added to each well. The effect of recombinant ADAMTS13, recombinant VWF‐A2 and anti‐αL antibodies on the number of adhered CCL21‐stimulated Jurkat cells to VWF was compared ( n = 8, each experiment in triplicates). p ‐values were calculated using a one‐way ANOVA test with Dunnett's multiple comparison correction compared to the number of adhered CCL21‐stimulated Jurkat cells VWF. * p < 0.05.

    Journal: Journal of Cellular and Molecular Medicine

    Article Title: The effect of ADAMTS13 on graft‐versus‐host disease

    doi: 10.1111/jcmm.18457

    Figure Lengend Snippet: Role of VWF in the binding of T cells. (A) One hundred thousand Jurkat cells (immortalize malignant T lymphocytes) were incubated with HUVECs cells plated on 6‐well plates. After 15 min incubation at 37°C, the number of adhered Jurkat cells in each well was counted using pictures taken with an inverted microscope and compared between histamine‐stimulated and non‐stimulated HUVECs. The effect of recombinant ADAMTS13 (1 mg/mL), recombinant VWF‐A2 (1 mg/mL) and anti‐α L antibodies (1:1000 dilution) on the number of adhered Jurkat cells to histamine‐stimulated HUVECs were compared ( n = 4, each experiment in triplicates). p‐ values were calculated using a one‐way ANOVA test with Dunnett's multiple comparison correction compared to the number of adhered Jurkat cells to histamine‐stimulated HUVECs. * p < 0.05. (B) One hundred thousand Jurkat cells were incubated in VWF‐coated 96‐wells plates for 15 min at 37°C. Jurkat cells, either pre‐stimulated with 200 ng/mL of CCL21 or resting, were added to each well. The effect of recombinant ADAMTS13, recombinant VWF‐A2 and anti‐αL antibodies on the number of adhered CCL21‐stimulated Jurkat cells to VWF was compared ( n = 8, each experiment in triplicates). p ‐values were calculated using a one‐way ANOVA test with Dunnett's multiple comparison correction compared to the number of adhered CCL21‐stimulated Jurkat cells VWF. * p < 0.05.

    Article Snippet: In some experiments, prior to adding Jurkat cells, histamine‐stimulated HUVEC cells were treated with 1 μg/mL of recombinant human ADAMTS13 (6156‐AD; R&D Systems) for 10 min at room temperature.

    Techniques: Binding Assay, Incubation, Inverted Microscopy, Recombinant, Comparison

    FIGURE 5 ADAMTS13 and VWF-A2 reduced donor-derived T cells in secondary lymphoid organs 24 h after bone marrow transplant. Mice were sacrificed 24 h post-transplant (n = 4). Cells were

    Journal: Journal of cellular and molecular medicine

    Article Title: The effect of ADAMTS13 on graft-versus-host disease.

    doi: 10.1111/jcmm.18457

    Figure Lengend Snippet: FIGURE 5 ADAMTS13 and VWF-A2 reduced donor-derived T cells in secondary lymphoid organs 24 h after bone marrow transplant. Mice were sacrificed 24 h post-transplant (n = 4). Cells were

    Article Snippet: In some experiments, prior to adding Jurkat cells, histamine- stimulated HUVEC cells were treated with 1 μg/mL of recombinant human ADAMTS13 (6156- AD; R&D Systems) for 10 min at room temperature.

    Techniques: Derivative Assay

    FIGURE 7 Role of VWF in the binding of T cells. (A) One hundred thousand Jurkat cells (immortalize malignant T lymphocytes) were incubated with HUVECs cells plated on 6-well plates. After 15 min incubation at 37°C, the number of adhered Jurkat cells in each well was counted using pictures taken with an inverted microscope and compared between histamine-stimulated and non-stimulated HUVECs. The effect of recombinant ADAMTS13 (1 mg/mL), recombinant VWF-A2 (1 mg/mL) and anti-αL antibodies (1:1000 dilution) on the number of adhered Jurkat cells to histamine- stimulated HUVECs were compared (n = 4, each experiment in triplicates). p-values were calculated using a one-way ANOVA test with Dunnett's multiple comparison correction compared to the number of adhered Jurkat cells to histamine-stimulated HUVECs. * p < 0.05. (B) One hundred thousand Jurkat cells were incubated in VWF-coated 96-wells plates for 15 min at 37°C. Jurkat cells, either pre-stimulated with 200 ng/mL of CCL21 or resting, were added to each well. The effect of recombinant ADAMTS13, recombinant VWF-A2 and anti-αL antibodies on the number of adhered CCL21-stimulated Jurkat cells to VWF was compared (n = 8, each experiment in triplicates). p-values were calculated using a one-way ANOVA test with Dunnett's multiple comparison correction compared to the number of adhered CCL21-stimulated Jurkat cells VWF. *p < 0.05.

    Journal: Journal of cellular and molecular medicine

    Article Title: The effect of ADAMTS13 on graft-versus-host disease.

    doi: 10.1111/jcmm.18457

    Figure Lengend Snippet: FIGURE 7 Role of VWF in the binding of T cells. (A) One hundred thousand Jurkat cells (immortalize malignant T lymphocytes) were incubated with HUVECs cells plated on 6-well plates. After 15 min incubation at 37°C, the number of adhered Jurkat cells in each well was counted using pictures taken with an inverted microscope and compared between histamine-stimulated and non-stimulated HUVECs. The effect of recombinant ADAMTS13 (1 mg/mL), recombinant VWF-A2 (1 mg/mL) and anti-αL antibodies (1:1000 dilution) on the number of adhered Jurkat cells to histamine- stimulated HUVECs were compared (n = 4, each experiment in triplicates). p-values were calculated using a one-way ANOVA test with Dunnett's multiple comparison correction compared to the number of adhered Jurkat cells to histamine-stimulated HUVECs. * p < 0.05. (B) One hundred thousand Jurkat cells were incubated in VWF-coated 96-wells plates for 15 min at 37°C. Jurkat cells, either pre-stimulated with 200 ng/mL of CCL21 or resting, were added to each well. The effect of recombinant ADAMTS13, recombinant VWF-A2 and anti-αL antibodies on the number of adhered CCL21-stimulated Jurkat cells to VWF was compared (n = 8, each experiment in triplicates). p-values were calculated using a one-way ANOVA test with Dunnett's multiple comparison correction compared to the number of adhered CCL21-stimulated Jurkat cells VWF. *p < 0.05.

    Article Snippet: In some experiments, prior to adding Jurkat cells, histamine- stimulated HUVEC cells were treated with 1 μg/mL of recombinant human ADAMTS13 (6156- AD; R&D Systems) for 10 min at room temperature.

    Techniques: Binding Assay, Incubation, Inverted Microscopy, Recombinant, Comparison

    Figure 1. Enzymatic activity of ADAMTS13-BirA*. Self-labelling of 250 nM ADAMTS13-BirA* in HBS in the presence or absence of 50 µM biotin, 1 mM ATP. Samples were subjected to pull-down by streptavidin-agarose and visualized by Western Blot with an anti-FLAG antibody.

    Journal: Scientific reports

    Article Title: Optimization of plasma-based BioID identifies plasminogen as a ligand of ADAMTS13.

    doi: 10.1038/s41598-024-59672-6

    Figure Lengend Snippet: Figure 1. Enzymatic activity of ADAMTS13-BirA*. Self-labelling of 250 nM ADAMTS13-BirA* in HBS in the presence or absence of 50 µM biotin, 1 mM ATP. Samples were subjected to pull-down by streptavidin-agarose and visualized by Western Blot with an anti-FLAG antibody.

    Article Snippet: ADAMTS13 (2.5 nM) as wild-type (R&D Systems: 6156-AD) or as ADAMTS13-BirA* was reacted with FRETS-VWF73 (1 μM) in FRETS buffer (20 mM Tris–HCl, 25 mM CaCl2, 0.05% Tween-20, pH 7.4) and the activity was measured using SpectraMax M3 (Molecular Devices) fluorescence mode at ex = 340 nm and em = 450 nm.

    Techniques: Activity Assay, Western Blot

    Figure 2. Optimization of the stability of ATP in plasma. (A) Measurement of ATP concentration in citrated plasma in the presence or absence of various inhibitors (3 mM EDTA, 2 mM NaVO4, 1 µM IBMX, 5 nM NBTI or TBS (no inhibitor)) over the course of 4 h, expressed as a percentage of that at time 0 h. (B) Autobiotinylation activity of 100 nM ADAMTS13-BirA* in plasma in the absence of ATPase inhibitors (TBS) or presence of ATPase inhibitors (3 mM EDTA, or 2 mM NaVO4, 1 µM IBMX and 5 nM NBTI) over the course of 4 h. Samples were pulled down using streptavidin agarose and visualized by Western Blot using anti-FLAG antibody. (C) Labelling of plasma proteins by 100 nM ADAMTS13-BirA*, with serial supplementation of 2 mM ATP every hour, after the initial addition of 1 mM ATP at the beginning of the experiment, over the course of 4 h, and visualized by SYPRO-RUBY total protein stain.

    Journal: Scientific reports

    Article Title: Optimization of plasma-based BioID identifies plasminogen as a ligand of ADAMTS13.

    doi: 10.1038/s41598-024-59672-6

    Figure Lengend Snippet: Figure 2. Optimization of the stability of ATP in plasma. (A) Measurement of ATP concentration in citrated plasma in the presence or absence of various inhibitors (3 mM EDTA, 2 mM NaVO4, 1 µM IBMX, 5 nM NBTI or TBS (no inhibitor)) over the course of 4 h, expressed as a percentage of that at time 0 h. (B) Autobiotinylation activity of 100 nM ADAMTS13-BirA* in plasma in the absence of ATPase inhibitors (TBS) or presence of ATPase inhibitors (3 mM EDTA, or 2 mM NaVO4, 1 µM IBMX and 5 nM NBTI) over the course of 4 h. Samples were pulled down using streptavidin agarose and visualized by Western Blot using anti-FLAG antibody. (C) Labelling of plasma proteins by 100 nM ADAMTS13-BirA*, with serial supplementation of 2 mM ATP every hour, after the initial addition of 1 mM ATP at the beginning of the experiment, over the course of 4 h, and visualized by SYPRO-RUBY total protein stain.

    Article Snippet: ADAMTS13 (2.5 nM) as wild-type (R&D Systems: 6156-AD) or as ADAMTS13-BirA* was reacted with FRETS-VWF73 (1 μM) in FRETS buffer (20 mM Tris–HCl, 25 mM CaCl2, 0.05% Tween-20, pH 7.4) and the activity was measured using SpectraMax M3 (Molecular Devices) fluorescence mode at ex = 340 nm and em = 450 nm.

    Techniques: Clinical Proteomics, Concentration Assay, Activity Assay, Western Blot, Staining

    Figure 4. Binding of various analytes to immobilized ADAMTS13. Analytes Glu-Plasminogen (Glu-Pg), vitronectin (Vn), stanniocalcin-2 (STC2) and bovine serum albumin (BSA) were passed over immobilized ADAMTS13 at varying concentrations (0–7 µM). Change in response units was monitored over time, and corrected using a blank empty flow channel. Equilibrium value response units are plotted as a function of analyte concentration. Data points are presented as mean ± standard deviation or 3 biological replicates. Data points are fitted using a one-site binding model using GraphPad Prism.

    Journal: Scientific reports

    Article Title: Optimization of plasma-based BioID identifies plasminogen as a ligand of ADAMTS13.

    doi: 10.1038/s41598-024-59672-6

    Figure Lengend Snippet: Figure 4. Binding of various analytes to immobilized ADAMTS13. Analytes Glu-Plasminogen (Glu-Pg), vitronectin (Vn), stanniocalcin-2 (STC2) and bovine serum albumin (BSA) were passed over immobilized ADAMTS13 at varying concentrations (0–7 µM). Change in response units was monitored over time, and corrected using a blank empty flow channel. Equilibrium value response units are plotted as a function of analyte concentration. Data points are presented as mean ± standard deviation or 3 biological replicates. Data points are fitted using a one-site binding model using GraphPad Prism.

    Article Snippet: ADAMTS13 (2.5 nM) as wild-type (R&D Systems: 6156-AD) or as ADAMTS13-BirA* was reacted with FRETS-VWF73 (1 μM) in FRETS buffer (20 mM Tris–HCl, 25 mM CaCl2, 0.05% Tween-20, pH 7.4) and the activity was measured using SpectraMax M3 (Molecular Devices) fluorescence mode at ex = 340 nm and em = 450 nm.

    Techniques: Binding Assay, Concentration Assay, Standard Deviation

    Figure 3. Proteins identified from the in-vitro BioID screen of ADAMTS13 in plasma. Venn diagram of the number of proteins labelled from BioID assay of 100 nM ADAMTS13-BirA*, BirA* or PBS buffer (no protein) in citrated plasma, with 1 mM ATP added every hour, and 50 µM biotin, at 37 °C for 4 h. Labelled proteins were isolated using agarose streptavidin beads, digested with trypsin, and identified using LC–MS/MS. The numbers represent the number of unique labelled proteins present in each condition.

    Journal: Scientific reports

    Article Title: Optimization of plasma-based BioID identifies plasminogen as a ligand of ADAMTS13.

    doi: 10.1038/s41598-024-59672-6

    Figure Lengend Snippet: Figure 3. Proteins identified from the in-vitro BioID screen of ADAMTS13 in plasma. Venn diagram of the number of proteins labelled from BioID assay of 100 nM ADAMTS13-BirA*, BirA* or PBS buffer (no protein) in citrated plasma, with 1 mM ATP added every hour, and 50 µM biotin, at 37 °C for 4 h. Labelled proteins were isolated using agarose streptavidin beads, digested with trypsin, and identified using LC–MS/MS. The numbers represent the number of unique labelled proteins present in each condition.

    Article Snippet: ADAMTS13 (2.5 nM) as wild-type (R&D Systems: 6156-AD) or as ADAMTS13-BirA* was reacted with FRETS-VWF73 (1 μM) in FRETS buffer (20 mM Tris–HCl, 25 mM CaCl2, 0.05% Tween-20, pH 7.4) and the activity was measured using SpectraMax M3 (Molecular Devices) fluorescence mode at ex = 340 nm and em = 450 nm.

    Techniques: In Vitro, Clinical Proteomics, Isolation, Liquid Chromatography with Mass Spectroscopy

    Figure 6. Effect of EACA or TXA onto Glu-Pg and Lys-Pg binding to immobilized ADAMTS13. Increasing concentration (0–5 mM) of EACA or TXA were injected along with 2 µM Glu-Pg or Lys-Pg onto immobilized ADAMTS13. Change in response units was monitored over time, and corrected using a blank empty flow channel. Equilibrium value response units are plotted as a function of analyte concentration. Data points are presented as mean ± standard deviation or 3 biological replicates. Data points are fitted using a one-site binding model using a competitive inhibition model ([inhibitor] vs normalized response—variable slope) using GraphPad Prism (V9).

    Journal: Scientific reports

    Article Title: Optimization of plasma-based BioID identifies plasminogen as a ligand of ADAMTS13.

    doi: 10.1038/s41598-024-59672-6

    Figure Lengend Snippet: Figure 6. Effect of EACA or TXA onto Glu-Pg and Lys-Pg binding to immobilized ADAMTS13. Increasing concentration (0–5 mM) of EACA or TXA were injected along with 2 µM Glu-Pg or Lys-Pg onto immobilized ADAMTS13. Change in response units was monitored over time, and corrected using a blank empty flow channel. Equilibrium value response units are plotted as a function of analyte concentration. Data points are presented as mean ± standard deviation or 3 biological replicates. Data points are fitted using a one-site binding model using a competitive inhibition model ([inhibitor] vs normalized response—variable slope) using GraphPad Prism (V9).

    Article Snippet: ADAMTS13 (2.5 nM) as wild-type (R&D Systems: 6156-AD) or as ADAMTS13-BirA* was reacted with FRETS-VWF73 (1 μM) in FRETS buffer (20 mM Tris–HCl, 25 mM CaCl2, 0.05% Tween-20, pH 7.4) and the activity was measured using SpectraMax M3 (Molecular Devices) fluorescence mode at ex = 340 nm and em = 450 nm.

    Techniques: Binding Assay, Concentration Assay, Injection, Standard Deviation, Inhibition

    Figure 5. Binding of various forms of plasminogen or apo(a) to immobilized ADAMTS13, MDTCS or fibrinogen. Various forms of plasminogen (A) (Glu-Pg, Lys-Pg, mini-Pg, µ-Pg, VFK-plasmin) or apo(a) (B) at varying concentrations 0–3.5 or 0–7 µM were injected onto immobilized ADAMTS13 (A—left), MDTCS (A— right), or fibrinogen. Change in response units was monitored over time, and corrected using a blank empty flow channel. Equilibrium value response units are plotted as a function of analyte concentration. Data points are presented as mean ± standard deviation or 3 biological replicates. Data points are fitted using a one-site binding model using GraphPad Prism.

    Journal: Scientific reports

    Article Title: Optimization of plasma-based BioID identifies plasminogen as a ligand of ADAMTS13.

    doi: 10.1038/s41598-024-59672-6

    Figure Lengend Snippet: Figure 5. Binding of various forms of plasminogen or apo(a) to immobilized ADAMTS13, MDTCS or fibrinogen. Various forms of plasminogen (A) (Glu-Pg, Lys-Pg, mini-Pg, µ-Pg, VFK-plasmin) or apo(a) (B) at varying concentrations 0–3.5 or 0–7 µM were injected onto immobilized ADAMTS13 (A—left), MDTCS (A— right), or fibrinogen. Change in response units was monitored over time, and corrected using a blank empty flow channel. Equilibrium value response units are plotted as a function of analyte concentration. Data points are presented as mean ± standard deviation or 3 biological replicates. Data points are fitted using a one-site binding model using GraphPad Prism.

    Article Snippet: ADAMTS13 (2.5 nM) as wild-type (R&D Systems: 6156-AD) or as ADAMTS13-BirA* was reacted with FRETS-VWF73 (1 μM) in FRETS buffer (20 mM Tris–HCl, 25 mM CaCl2, 0.05% Tween-20, pH 7.4) and the activity was measured using SpectraMax M3 (Molecular Devices) fluorescence mode at ex = 340 nm and em = 450 nm.

    Techniques: Binding Assay, Injection, Concentration Assay, Standard Deviation

    Figure 7. Western blot analysis of ADAMTS13 degradation by plasmin, with or without TXA. 100 nM ADAMTS13 was incubated with 10 nM plasmin in the absence (A) or presence (B) of 5 mM TXA. Aliquots were removed at various time points into reducing sample buffer and boiled immediately to stop the reaction. Samples were analyzed by Western Blot using an antibody targeting the metalloprotease domain of ADAMTS13. Bands at approximately 180 kDa correspond to full-length ADAMTS13, and the appearance of other bands indicates degradation of ADAMTS13 into smaller fragments. (C) The relative intensity of the intact ADAMTS13 band was determined at each time point and plotted as a function of time. Data were fit to a one phase exponential decay model using GraphPad Prism (V9). Values represent the mean ± standard deviation of 3 biological replicates.

    Journal: Scientific reports

    Article Title: Optimization of plasma-based BioID identifies plasminogen as a ligand of ADAMTS13.

    doi: 10.1038/s41598-024-59672-6

    Figure Lengend Snippet: Figure 7. Western blot analysis of ADAMTS13 degradation by plasmin, with or without TXA. 100 nM ADAMTS13 was incubated with 10 nM plasmin in the absence (A) or presence (B) of 5 mM TXA. Aliquots were removed at various time points into reducing sample buffer and boiled immediately to stop the reaction. Samples were analyzed by Western Blot using an antibody targeting the metalloprotease domain of ADAMTS13. Bands at approximately 180 kDa correspond to full-length ADAMTS13, and the appearance of other bands indicates degradation of ADAMTS13 into smaller fragments. (C) The relative intensity of the intact ADAMTS13 band was determined at each time point and plotted as a function of time. Data were fit to a one phase exponential decay model using GraphPad Prism (V9). Values represent the mean ± standard deviation of 3 biological replicates.

    Article Snippet: ADAMTS13 (2.5 nM) as wild-type (R&D Systems: 6156-AD) or as ADAMTS13-BirA* was reacted with FRETS-VWF73 (1 μM) in FRETS buffer (20 mM Tris–HCl, 25 mM CaCl2, 0.05% Tween-20, pH 7.4) and the activity was measured using SpectraMax M3 (Molecular Devices) fluorescence mode at ex = 340 nm and em = 450 nm.

    Techniques: Western Blot, Incubation, Standard Deviation