Cell Surface Structures Influence Lung Clearance Rate of Systemically Infused Mesenchymal Stromal Cells

The promising clinical effects of mesenchymal stromal/stem cells (MSCs) rely especially on paracrine and nonimmunogenic mechanisms. Delivery routes are essential for the efficacy of cell therapy and systemic delivery by infusion is the obvious goal for many forms of MSC therapy. Lung adhesion of MSC...

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Veröffentlicht in:Stem cells (Dayton, Ohio) Ohio), 2013-02, Vol.31 (2), p.317-326
Hauptverfasser: Nystedt, Johanna, Anderson, Heidi, Tikkanen, Jonne, Pietilä, Mika, Hirvonen, Tia, Takalo, Reijo, Heiskanen, Annamari, Satomaa, Tero, Natunen, Suvi, Lehtonen, Siri, Hakkarainen, Tanja, Korhonen, Matti, Laitinen, Saara, Valmu, Leena, Lehenkari, Petri
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container_end_page 326
container_issue 2
container_start_page 317
container_title Stem cells (Dayton, Ohio)
container_volume 31
creator Nystedt, Johanna
Anderson, Heidi
Tikkanen, Jonne
Pietilä, Mika
Hirvonen, Tia
Takalo, Reijo
Heiskanen, Annamari
Satomaa, Tero
Natunen, Suvi
Lehtonen, Siri
Hakkarainen, Tanja
Korhonen, Matti
Laitinen, Saara
Valmu, Leena
Lehenkari, Petri
description The promising clinical effects of mesenchymal stromal/stem cells (MSCs) rely especially on paracrine and nonimmunogenic mechanisms. Delivery routes are essential for the efficacy of cell therapy and systemic delivery by infusion is the obvious goal for many forms of MSC therapy. Lung adhesion of MSCs might, however, be a major obstacle yet to overcome. Current knowledge does not allow us to make sound conclusions whether MSC lung entrapment is harmful or beneficial, and thus we wanted to explore MSC lung adhesion in greater detail. We found a striking difference in the lung clearance rate of systemically infused MSCs derived from two different clinical sources, namely bone marrow (BM‐MSCs) and umbilical cord blood (UCB‐MSCs). The BM‐MSCs and UCB‐MSCs used in this study differed in cell size, but our results also indicated other mechanisms behind the lung adherence. A detailed analysis of the cell surface profiles revealed differences in the expression of relevant adhesion molecules. The UCB‐MSCs had higher expression levels of α4 integrin (CD49d, VLA‐4), α6 integrin (CD49f, VLA‐6), and the hepatocyte growth factor receptor (c‐Met) and a higher general fucosylation level. Strikingly, the level of CD49d and CD49f expression could be functionally linked with the lung clearance rate. Additionally, we saw a possible link between MSC lung adherence and higher fibronectin expression and we show that the expression of fibronectin increases with MSC culture confluence. Future studies should aim at developing methods of transiently modifying the cell surface structures in order to improve the delivery of therapeutic cells. STEM CELLS2013;31:317–326
doi_str_mv 10.1002/stem.1271
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Delivery routes are essential for the efficacy of cell therapy and systemic delivery by infusion is the obvious goal for many forms of MSC therapy. Lung adhesion of MSCs might, however, be a major obstacle yet to overcome. Current knowledge does not allow us to make sound conclusions whether MSC lung entrapment is harmful or beneficial, and thus we wanted to explore MSC lung adhesion in greater detail. We found a striking difference in the lung clearance rate of systemically infused MSCs derived from two different clinical sources, namely bone marrow (BM‐MSCs) and umbilical cord blood (UCB‐MSCs). The BM‐MSCs and UCB‐MSCs used in this study differed in cell size, but our results also indicated other mechanisms behind the lung adherence. A detailed analysis of the cell surface profiles revealed differences in the expression of relevant adhesion molecules. The UCB‐MSCs had higher expression levels of α4 integrin (CD49d, VLA‐4), α6 integrin (CD49f, VLA‐6), and the hepatocyte growth factor receptor (c‐Met) and a higher general fucosylation level. Strikingly, the level of CD49d and CD49f expression could be functionally linked with the lung clearance rate. Additionally, we saw a possible link between MSC lung adherence and higher fibronectin expression and we show that the expression of fibronectin increases with MSC culture confluence. Future studies should aim at developing methods of transiently modifying the cell surface structures in order to improve the delivery of therapeutic cells. 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The UCB‐MSCs had higher expression levels of α4 integrin (CD49d, VLA‐4), α6 integrin (CD49f, VLA‐6), and the hepatocyte growth factor receptor (c‐Met) and a higher general fucosylation level. Strikingly, the level of CD49d and CD49f expression could be functionally linked with the lung clearance rate. Additionally, we saw a possible link between MSC lung adherence and higher fibronectin expression and we show that the expression of fibronectin increases with MSC culture confluence. Future studies should aim at developing methods of transiently modifying the cell surface structures in order to improve the delivery of therapeutic cells. 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Delivery routes are essential for the efficacy of cell therapy and systemic delivery by infusion is the obvious goal for many forms of MSC therapy. Lung adhesion of MSCs might, however, be a major obstacle yet to overcome. Current knowledge does not allow us to make sound conclusions whether MSC lung entrapment is harmful or beneficial, and thus we wanted to explore MSC lung adhesion in greater detail. We found a striking difference in the lung clearance rate of systemically infused MSCs derived from two different clinical sources, namely bone marrow (BM‐MSCs) and umbilical cord blood (UCB‐MSCs). The BM‐MSCs and UCB‐MSCs used in this study differed in cell size, but our results also indicated other mechanisms behind the lung adherence. A detailed analysis of the cell surface profiles revealed differences in the expression of relevant adhesion molecules. 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source Oxford University Press Journals All Titles (1996-Current); MEDLINE; Elektronische Zeitschriftenbibliothek - Frei zugängliche E-Journals; Alma/SFX Local Collection
subjects Animals
Biodistribution
Biomarkers - metabolism
Bone marrow
Bone Marrow Cells - cytology
Bone Marrow Cells - metabolism
Cell adherence
Cell Adhesion
Cell Differentiation
Cell surface
Cord Blood Stem Cell Transplantation
Female
Fetal Blood - cytology
Fetal Blood - metabolism
Gene Expression
Half-Life
Humans
Infusions, Intravenous
Integrin alpha4 - genetics
Integrin alpha4 - metabolism
Integrin alpha4beta1 - genetics
Integrin alpha4beta1 - metabolism
Integrin alpha6 - genetics
Integrin alpha6 - metabolism
Integrin alpha6beta1 - genetics
Integrin alpha6beta1 - metabolism
Isotope Labeling
Lung
Lung - cytology
Lung - immunology
Lung - metabolism
Medical research
Mesenchymal Stem Cell Transplantation
Mesenchymal Stromal Cells - cytology
Mesenchymal Stromal Cells - metabolism
Mesenchymal stromal/stem cell
Mice
Mice, Nude
Proto-Oncogene Proteins c-met - genetics
Proto-Oncogene Proteins c-met - metabolism
Stem cells
Systemic infusion
Technetium Compounds
Transplantation, Heterologous
title Cell Surface Structures Influence Lung Clearance Rate of Systemically Infused Mesenchymal Stromal Cells
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