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Culture-Modified Bone Marrow Cells Attenuate Cardiac and Renal Injury in a Chronic Kidney Disease Rat Model via a Novel Antifibrotic Mechanism

BACKGROUND: Most forms of chronic kidney disease are characterized by progressive renal and cardiac fibrosis leading to dysfunction. Preliminary evidence suggests that various bone marrow-derived cell populations have antifibrotic effects. In exploring the therapeutic potential of bone marrow derive...

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Autores principales: Yuen, Darren A., Connelly, Kim A., Advani, Andrew, Liao, Christine, Kuliszewski, Michael A., Trogadis, Judy, Thai, Kerri, Advani, Suzanne L., Zhang, Yuan, Kelly, Darren J., Leong-Poi, Howard, Keating, Armand, Marsden, Philip A., Stewart, Duncan J., Gilbert, Richard E.
Formato: Texto
Lenguaje:English
Publicado: Public Library of Science 2010
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC2832011/
https://www.ncbi.nlm.nih.gov/pubmed/20209052
http://dx.doi.org/10.1371/journal.pone.0009543
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author Yuen, Darren A.
Connelly, Kim A.
Advani, Andrew
Liao, Christine
Kuliszewski, Michael A.
Trogadis, Judy
Thai, Kerri
Advani, Suzanne L.
Zhang, Yuan
Kelly, Darren J.
Leong-Poi, Howard
Keating, Armand
Marsden, Philip A.
Stewart, Duncan J.
Gilbert, Richard E.
author_facet Yuen, Darren A.
Connelly, Kim A.
Advani, Andrew
Liao, Christine
Kuliszewski, Michael A.
Trogadis, Judy
Thai, Kerri
Advani, Suzanne L.
Zhang, Yuan
Kelly, Darren J.
Leong-Poi, Howard
Keating, Armand
Marsden, Philip A.
Stewart, Duncan J.
Gilbert, Richard E.
author_sort Yuen, Darren A.
collection PubMed
description BACKGROUND: Most forms of chronic kidney disease are characterized by progressive renal and cardiac fibrosis leading to dysfunction. Preliminary evidence suggests that various bone marrow-derived cell populations have antifibrotic effects. In exploring the therapeutic potential of bone marrow derived cells in chronic cardio-renal disease, we examined the anti-fibrotic effects of bone marrow-derived culture modified cells (CMCs) and stromal cells (SCs). METHODOLOGY/PRINCIPAL FINDINGS: In vitro, CMC-conditioned medium, but not SC-conditioned medium, inhibited fibroblast collagen production and cell signalling in response to transforming growth factor-ß. The antifibrotic effects of CMCs and SCs were then evaluated in the 5/6 nephrectomy model of chronic cardio-renal disease. While intravascular infusion of 10(6) SCs had no effect, 10(6) CMCs reduced renal fibrosis compared to saline in the glomeruli (glomerulosclerosis index: 0.8±0.1 v 1.9±0.2 arbitrary units) and the tubulointersitium (% area type IV collagen: 1.2±0.3 v 8.4±2.0, p<0.05 for both). Similarly, 10(6) CMCs reduced cardiac fibrosis compared to saline (% area stained with picrosirius red: 3.2±0.3 v 5.1±0.4, p<0.05), whereas 10(6) SCs had no effect. Structural changes induced by CMC therapy were accompanied by improved function, as reflected by reductions in plasma creatinine (58±3 v 81±11 µmol/L), urinary protein excretion (9×/÷1 v 64×/÷1 mg/day), and diastolic cardiac stiffness (left ventricular end-diastolic pressure-volume relationship: 0.030±0.003 v 0.058±0.011 mm Hg/µL, p<0.05 for all). Despite substantial improvements in structure and function, only rare CMCs were present in the kidney and heart, whereas abundant CMCs were detected in the liver and spleen. CONCLUSIONS/SIGNIFICANCE: Together, these findings provide the first evidence suggesting that CMCs, but not SCs, exert a protective action in cardio-renal disease and that these effects may be mediated by the secretion of diffusible anti-fibrotic factor(s).
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spelling pubmed-28320112010-03-06 Culture-Modified Bone Marrow Cells Attenuate Cardiac and Renal Injury in a Chronic Kidney Disease Rat Model via a Novel Antifibrotic Mechanism Yuen, Darren A. Connelly, Kim A. Advani, Andrew Liao, Christine Kuliszewski, Michael A. Trogadis, Judy Thai, Kerri Advani, Suzanne L. Zhang, Yuan Kelly, Darren J. Leong-Poi, Howard Keating, Armand Marsden, Philip A. Stewart, Duncan J. Gilbert, Richard E. PLoS One Research Article BACKGROUND: Most forms of chronic kidney disease are characterized by progressive renal and cardiac fibrosis leading to dysfunction. Preliminary evidence suggests that various bone marrow-derived cell populations have antifibrotic effects. In exploring the therapeutic potential of bone marrow derived cells in chronic cardio-renal disease, we examined the anti-fibrotic effects of bone marrow-derived culture modified cells (CMCs) and stromal cells (SCs). METHODOLOGY/PRINCIPAL FINDINGS: In vitro, CMC-conditioned medium, but not SC-conditioned medium, inhibited fibroblast collagen production and cell signalling in response to transforming growth factor-ß. The antifibrotic effects of CMCs and SCs were then evaluated in the 5/6 nephrectomy model of chronic cardio-renal disease. While intravascular infusion of 10(6) SCs had no effect, 10(6) CMCs reduced renal fibrosis compared to saline in the glomeruli (glomerulosclerosis index: 0.8±0.1 v 1.9±0.2 arbitrary units) and the tubulointersitium (% area type IV collagen: 1.2±0.3 v 8.4±2.0, p<0.05 for both). Similarly, 10(6) CMCs reduced cardiac fibrosis compared to saline (% area stained with picrosirius red: 3.2±0.3 v 5.1±0.4, p<0.05), whereas 10(6) SCs had no effect. Structural changes induced by CMC therapy were accompanied by improved function, as reflected by reductions in plasma creatinine (58±3 v 81±11 µmol/L), urinary protein excretion (9×/÷1 v 64×/÷1 mg/day), and diastolic cardiac stiffness (left ventricular end-diastolic pressure-volume relationship: 0.030±0.003 v 0.058±0.011 mm Hg/µL, p<0.05 for all). Despite substantial improvements in structure and function, only rare CMCs were present in the kidney and heart, whereas abundant CMCs were detected in the liver and spleen. CONCLUSIONS/SIGNIFICANCE: Together, these findings provide the first evidence suggesting that CMCs, but not SCs, exert a protective action in cardio-renal disease and that these effects may be mediated by the secretion of diffusible anti-fibrotic factor(s). Public Library of Science 2010-03-04 /pmc/articles/PMC2832011/ /pubmed/20209052 http://dx.doi.org/10.1371/journal.pone.0009543 Text en Yuen et al. http://creativecommons.org/licenses/by/4.0/ This is an open-access article distributed under the terms of the Creative Commons Attribution License, which permits unrestricted use, distribution, and reproduction in any medium, provided the original author and source are properly credited.
spellingShingle Research Article
Yuen, Darren A.
Connelly, Kim A.
Advani, Andrew
Liao, Christine
Kuliszewski, Michael A.
Trogadis, Judy
Thai, Kerri
Advani, Suzanne L.
Zhang, Yuan
Kelly, Darren J.
Leong-Poi, Howard
Keating, Armand
Marsden, Philip A.
Stewart, Duncan J.
Gilbert, Richard E.
Culture-Modified Bone Marrow Cells Attenuate Cardiac and Renal Injury in a Chronic Kidney Disease Rat Model via a Novel Antifibrotic Mechanism
title Culture-Modified Bone Marrow Cells Attenuate Cardiac and Renal Injury in a Chronic Kidney Disease Rat Model via a Novel Antifibrotic Mechanism
title_full Culture-Modified Bone Marrow Cells Attenuate Cardiac and Renal Injury in a Chronic Kidney Disease Rat Model via a Novel Antifibrotic Mechanism
title_fullStr Culture-Modified Bone Marrow Cells Attenuate Cardiac and Renal Injury in a Chronic Kidney Disease Rat Model via a Novel Antifibrotic Mechanism
title_full_unstemmed Culture-Modified Bone Marrow Cells Attenuate Cardiac and Renal Injury in a Chronic Kidney Disease Rat Model via a Novel Antifibrotic Mechanism
title_short Culture-Modified Bone Marrow Cells Attenuate Cardiac and Renal Injury in a Chronic Kidney Disease Rat Model via a Novel Antifibrotic Mechanism
title_sort culture-modified bone marrow cells attenuate cardiac and renal injury in a chronic kidney disease rat model via a novel antifibrotic mechanism
topic Research Article
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC2832011/
https://www.ncbi.nlm.nih.gov/pubmed/20209052
http://dx.doi.org/10.1371/journal.pone.0009543
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