Renal epithelial cell‐derived monocyte colony stimulating factor as a local informant of renal injury and means of monocyte activation

Summary Monocyte accumulation in renal allografts is associated with allograft dysfunction. As monocyte influx occurs acutely following reperfusion, we investigated the effect of ischemia‐reperfusion injury (IRI) on monocyte colony stimulating factor (m‐CSF), a key cytokine in monocyte recruitment....

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Veröffentlicht in:Transplant international 2009-07, Vol.22 (7), p.730-737
Hauptverfasser: Singh, Kimberly A., Kampen, Robert L., Hoffmann, Steven C., Eldaif, Shady M., Kirk, Allan D.
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container_issue 7
container_start_page 730
container_title Transplant international
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creator Singh, Kimberly A.
Kampen, Robert L.
Hoffmann, Steven C.
Eldaif, Shady M.
Kirk, Allan D.
description Summary Monocyte accumulation in renal allografts is associated with allograft dysfunction. As monocyte influx occurs acutely following reperfusion, we investigated the effect of ischemia‐reperfusion injury (IRI) on monocyte colony stimulating factor (m‐CSF), a key cytokine in monocyte recruitment. We hypothesized that renal tubule epithelial cells (RTECs) could produce m‐CSF in response to IRI, which could in turn promote monocyte activation. Real time PCR was used to measure levels of intragraft m‐CSF transcripts in patients during IRI and clinical rejection. Also, m‐CSF production by RTECs following IRI simulation in vitro was measured using ELISA. Monocyte expression of CD40 and CD80 was then analyzed using flow cytometry following co‐culture with supernatants of RTECs after IRI. Monocyte expression of CD40, CD80 and HLA‐DR was then examined following treatment with rh‐m‐CSF (10, 36, and 100 ng/ml), as was monocyte size and granularity. We found that intragraft m‐CSF transcription was significantly increased postreperfusion (P = 0.002) and during clinical rejection (P = 0.002). We also found that RTECs produced m‐CSF in response to IRI in vitro (P = 0.036). Monocytes co‐cultured with the supernatants of postischemic RTECs became activated as evidenced by increased expression of CD40 and CD80. Also, monocytes treated with recombinant m‐CSF assumed an activated phenotype exhibiting increased size, granularity and expression of CD40, CD80, CD86, and HLA‐DR, and demonstrating enhanced phagocytic activity. Taken together, we suggest that renal tubular cell derived m‐CSF is a stimulus for monocyte activation and may be an important target for control of IRI‐associated immune activation.
doi_str_mv 10.1111/j.1432-2277.2009.00840.x
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As monocyte influx occurs acutely following reperfusion, we investigated the effect of ischemia‐reperfusion injury (IRI) on monocyte colony stimulating factor (m‐CSF), a key cytokine in monocyte recruitment. We hypothesized that renal tubule epithelial cells (RTECs) could produce m‐CSF in response to IRI, which could in turn promote monocyte activation. Real time PCR was used to measure levels of intragraft m‐CSF transcripts in patients during IRI and clinical rejection. Also, m‐CSF production by RTECs following IRI simulation in vitro was measured using ELISA. Monocyte expression of CD40 and CD80 was then analyzed using flow cytometry following co‐culture with supernatants of RTECs after IRI. Monocyte expression of CD40, CD80 and HLA‐DR was then examined following treatment with rh‐m‐CSF (10, 36, and 100 ng/ml), as was monocyte size and granularity. We found that intragraft m‐CSF transcription was significantly increased postreperfusion (P = 0.002) and during clinical rejection (P = 0.002). We also found that RTECs produced m‐CSF in response to IRI in vitro (P = 0.036). Monocytes co‐cultured with the supernatants of postischemic RTECs became activated as evidenced by increased expression of CD40 and CD80. Also, monocytes treated with recombinant m‐CSF assumed an activated phenotype exhibiting increased size, granularity and expression of CD40, CD80, CD86, and HLA‐DR, and demonstrating enhanced phagocytic activity. 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As monocyte influx occurs acutely following reperfusion, we investigated the effect of ischemia‐reperfusion injury (IRI) on monocyte colony stimulating factor (m‐CSF), a key cytokine in monocyte recruitment. We hypothesized that renal tubule epithelial cells (RTECs) could produce m‐CSF in response to IRI, which could in turn promote monocyte activation. Real time PCR was used to measure levels of intragraft m‐CSF transcripts in patients during IRI and clinical rejection. Also, m‐CSF production by RTECs following IRI simulation in vitro was measured using ELISA. Monocyte expression of CD40 and CD80 was then analyzed using flow cytometry following co‐culture with supernatants of RTECs after IRI. Monocyte expression of CD40, CD80 and HLA‐DR was then examined following treatment with rh‐m‐CSF (10, 36, and 100 ng/ml), as was monocyte size and granularity. We found that intragraft m‐CSF transcription was significantly increased postreperfusion (P = 0.002) and during clinical rejection (P = 0.002). We also found that RTECs produced m‐CSF in response to IRI in vitro (P = 0.036). Monocytes co‐cultured with the supernatants of postischemic RTECs became activated as evidenced by increased expression of CD40 and CD80. Also, monocytes treated with recombinant m‐CSF assumed an activated phenotype exhibiting increased size, granularity and expression of CD40, CD80, CD86, and HLA‐DR, and demonstrating enhanced phagocytic activity. 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As monocyte influx occurs acutely following reperfusion, we investigated the effect of ischemia‐reperfusion injury (IRI) on monocyte colony stimulating factor (m‐CSF), a key cytokine in monocyte recruitment. We hypothesized that renal tubule epithelial cells (RTECs) could produce m‐CSF in response to IRI, which could in turn promote monocyte activation. Real time PCR was used to measure levels of intragraft m‐CSF transcripts in patients during IRI and clinical rejection. Also, m‐CSF production by RTECs following IRI simulation in vitro was measured using ELISA. Monocyte expression of CD40 and CD80 was then analyzed using flow cytometry following co‐culture with supernatants of RTECs after IRI. Monocyte expression of CD40, CD80 and HLA‐DR was then examined following treatment with rh‐m‐CSF (10, 36, and 100 ng/ml), as was monocyte size and granularity. We found that intragraft m‐CSF transcription was significantly increased postreperfusion (P = 0.002) and during clinical rejection (P = 0.002). We also found that RTECs produced m‐CSF in response to IRI in vitro (P = 0.036). Monocytes co‐cultured with the supernatants of postischemic RTECs became activated as evidenced by increased expression of CD40 and CD80. Also, monocytes treated with recombinant m‐CSF assumed an activated phenotype exhibiting increased size, granularity and expression of CD40, CD80, CD86, and HLA‐DR, and demonstrating enhanced phagocytic activity. Taken together, we suggest that renal tubular cell derived m‐CSF is a stimulus for monocyte activation and may be an important target for control of IRI‐associated immune activation.</abstract><cop>Oxford, UK</cop><pub>Blackwell Publishing Ltd</pub><pmid>19196448</pmid><doi>10.1111/j.1432-2277.2009.00840.x</doi><tpages>6</tpages><oa>free_for_read</oa></addata></record>
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subjects B7-1 Antigen - biosynthesis
CD40 Antigens - biosynthesis
Colony-Stimulating Factors - metabolism
Enzyme-Linked Immunosorbent Assay
Epithelial Cells - cytology
Flow Cytometry - methods
HLA-DR Antigens - metabolism
Humans
Immune System
Ischemia - pathology
Kidney - injuries
Kidney - pathology
kidney transplantation
Kidney Transplantation - methods
Models, Biological
monocyte
monocyte colony stimulating factor
Monocytes - cytology
Monocytes - metabolism
Reperfusion
title Renal epithelial cell‐derived monocyte colony stimulating factor as a local informant of renal injury and means of monocyte activation
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